| Name of the Course Coordinator : Ms.M.Mohanavalli, AP/BME | | | | | |
| 1 | IV | 19BM701 Radiological Equipments | Technology based Learning | Digital Subtraction Angiography | The innovative teaching session on Digital Subtraction Angiography (DSA) used technology-based tools and digital simulations to help students visualize the subtraction process between pre- and post-contrast images. Multimedia resources, including animations, case discussions, and 3D reconstructions, made the class interactive and engaging. Real clinical examples effectively connected theoretical concepts with practical radiology applications. |
| | | Tutorial | Iterative method | The tutorial session focused on explaining the concept of Iterative Reconstruction Techniques in Computed Tomography (CT), which enhances image quality while minimizing radiation dose. The innovative element of this session was the blended teaching approach, integrating simulation-based visualization, step-by-step mathematical iteration demonstration, and interactive student problem-solving. The tutorial mode encouraged students to work in small groups, solving sample reconstruction problems with guidance. |
| | | Role Play | Block diagram approach of MRI system | The role play on MRI systems aimed to enhance conceptual understanding, visualization, and engagement. Students represented different MRI components magnet, RF coil, gradient coil, computer, and display demonstrating their functions and signal flow through interaction. This activity transformed complex theory into an engaging experience, promoted active learning, and encouraged analysis and synthesis over rote memorization. |
| | | Group Discussion | Radio Isotopes – alpha, beta and gamma radiations | The session on the Linear Accelerator (LINAC) used technology-driven methods, including multimedia simulations, virtual labs, and interactive quizzes, to enhance understanding and engagement. 3D animations effectively illustrated beam generation, focusing, and patient targeting. This approach turned passive learning into active exploration, helping students visualize LINAC operation and connect theoretical concepts with clinical practice. |
| | | Technology based Learning | Linear Accelerator | A student-centered group discussion was conducted where teams explored different radiation types alpha, beta, and gamma covering their properties, penetration, detection, and applications. Sharing findings encouraged collaboration, active participation, and critical thinking. Though initially hesitant, students became engaged with assigned roles, improving communication, teamwork, and retention of key concepts. |
| Name of the Course Coordinator : Dr.B.Saritha, ASP/BME | | | | | |
| 2 | IV | 19BM702-Human Assist Devices | Group Discussion | Different types of Oxygenators | The group discussion on oxygenators encouraged collaborative learning and deeper understanding of their working principles and biomedical applications. Students compared various oxygenator types, focusing on design, function, and clinical relevance. The activity enhanced communication, analytical thinking, and teamwork, effectively linking theory with real-world cardiopulmonary support systems. |
| | | Quiz | Prosthetic Cardio Valves | The quiz on prosthetic cardio valves actively engaged students in recalling concepts related to valve design, materials, and hemodynamic performance. The interactive format fostered enthusiasm, reinforced key knowledge areas, and helped identify learning gaps. It promoted quick thinking and strengthened conceptual retention through healthy academic competition. |
| | | Practical Based Leaning | Hearing Aids | The practical-based session on hearing aids provided hands-on experience with device components and signal processing mechanisms. Students explored fitting, testing, and troubleshooting procedures, bridging theoretical acoustics with clinical audiology applications. The activity enhanced technical competence, problem-solving ability, and understanding of assistive hearing technologies. |
| Name of the Course Coordinator : Mr.K.Balasubramanian, AP/BME | | | | | |
| 3 | IV | 19BM703 Hospital Management | Quiz | Pharmacy, Food Services, Laundry | The quiz on hospital support services effectively engaged students in revising essential operational aspects of pharmacy, food, and laundry management. It encouraged active participation, quick thinking, and knowledge retention. Students demonstrated improved understanding of workflow, coordination, and quality control within hospital service departments through this interactive assessment method. |
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| | | Group Discussion | Current Issues in Hospital Management | The group discussion on current hospital management issues promoted critical thinking and awareness of real-world healthcare challenges. Students analyzed and exchanged views on topics such as resource allocation, patient safety, and digital transformation in hospitals. The activity enhanced communication, teamwork, and problem-solving skills while fostering collaborative learning. |
| | | Flipped Class room | Health Insurance | The flipped classroom session on health insurance encouraged students to review concepts beforehand and engage in meaningful in-class discussions. This approach deepened their understanding of insurance models, reimbursement systems, and policy frameworks. The interactive format improved analytical ability and connected theoretical knowledge to practical applications in healthcare finance and management. |
| Name of the Course Coordinator : Ms.K.K.Leka, AP/BME | | | | | |
| 4 | IV | 19BMX21 Clinical Engineering | Group Discussion | Role and functions of primary Healthcare | The group discussion on primary healthcare enabled students to understand the structure, roles, and functions of the healthcare delivery system while promoting active participation, teamwork, and critical thinking. Faculty effectively guided the session, ensuring equal involvement and relevance to real-world healthcare scenarios. Students gained clarity on the importance of primary healthcare and rural health challenges, enhancing their communication and collaborative skills. |
| | | Flipped Classroom | Uninterrupted Power supply for ICU | The flipped classroom approach allowed students to study UPS concepts for ICUs through pre-recorded materials before class and apply them during in-class case analyses. Students were better prepared, actively engaged, and demonstrated strong understanding of load capacity and power backup design. The method enhanced higher-order thinking and integration of biomedical and electrical principles. Faculty effectively guided discussions and practical demonstrations, helping students link theoretical concepts with real hospital safety and reliability needs. |
| | | Peer Teaching | Deodorization | In this peer teaching session, students presented the principles and methods of deodorization in biomedical and pharmaceutical processes with confidence and clarity. The session encouraged leadership, communication, and teamwork, while peers engaged through active questioning. Faculty support ensured technical accuracy and relevance. The activity strengthened conceptual understanding and responsibility among students, with presenters gaining deeper insights and learners benefiting from relatable peer explanations. |
| | | Quiz | Training of men for medical equipments | The quiz activity evaluated students’ knowledge of biomedical equipment handling, safety, and maintenance through interactive and competitive participation. Students showed good recall and application of theoretical concepts to practical scenarios. The session encouraged teamwork, enthusiasm, and active engagement while helping identify knowledge gaps. The quiz served as an effective reinforcement tool, promoting retention of key principles related to equipment training and management. |
| | | Peer Teaching | Computerization in pharmacy | This session highlighted the role of computer technology in pharmacy management, covering inventory control, prescription handling, and patient data systems. Student instructors used clear presentations and real-time examples to explain software applications effectively. The collaborative learning atmosphere promoted digital awareness and active participation. Faculty facilitation ensured accuracy and smooth delivery. The approach improved students’ confidence, comprehension, and technical literacy in healthcare digitalization. |
| Name of the Course Coordinator : Ms.N.Ageela, AP/BME | | | | | |
| 5 | IV | 19BMX17 Physiological Modeling | Group Discussion | Lumped model of physiological thermal system | The group discussion helped students analyze the human body’s thermal regulation using the lumped model concept. It encouraged peer interaction and deeper understanding of heat transfer mechanisms within physiological systems. The activity improved communication, analytical thinking, and collaborative problem-solving skills. |
| | | Quiz | Development of a lung model | The quiz effectively assessed students’ knowledge of lung model development and reinforced theoretical understanding through interactive questioning. It encouraged quick recall and application of physiological modeling concepts. Students found the session engaging and useful for identifying learning gaps. |
| | | Peer group learning | Physiological Feedback systems | Peer group learning enabled students to collaboratively study feedback mechanisms in physiological control systems, promoting active engagement and concept sharing. The interaction helped clarify complex topics such as homeostasis and control loop stability. The approach fostered teamwork and deeper comprehension through discussion-based learning. |
| | | Quiz | Model of circadian rhythms | The quiz on circadian rhythm models enhanced understanding of biological timing mechanisms and their control systems. It provided an engaging way to test conceptual clarity and recall. The activity promoted active participation, competitive spirit, and immediate reinforcement of key physiological concepts. |
| | | Group Discussion | Introduction to digital control system. | This discussion allowed students to connect biomedical applications with digital control system principles. Through collaborative dialogue, they explored system behavior, feedback design, and control strategies. The activity encouraged critical thinking, active learning, and communication skills development. |
| Name of the Course Coordinator : Dr.G.S.Satheeshkumar, Prof/BME | | | | | |
| 6 | III | 19BM501 Bio Control System | Puzzle Solving | Modeling of electrical systems, translational and rotational mechanical systems | The puzzle-solving activity in Bio Control Systems encouraged analytical thinking and conceptual clarity by challenging students to model electrical, translational, and rotational mechanical systems. It helped them apply theoretical knowledge creatively to solve interconnected problems, thereby improving reasoning and problem-solving skills in system modeling. |
| | | Flipped Classroom | Determination of time domain specification of second order system | The flipped classroom approach allowed students to engage with learning materials before class, enabling deeper in-class discussions and hands-on exploration of time domain specifications of second-order systems. This method shifted learning from passive reception to active application, enhancing understanding and retention. |
| | | Mind Mapping | Construction of root Locus and study of stability | Mind mapping was used to help students visually connect concepts related to the construction of root locus and stability analysis. It fostered a clear conceptual framework, enabling students to better understand the relationships between system parameters and stability, promoting higher-order cognitive skills. |
| | | Group Discussion | Use of Nichol’s chart to compute frequency and bandwidth | Through structured group discussions on Nichol’s charts, students collaborated to compute frequency and bandwidth while sharing diverse perspectives. This approach nurtured communication, critical thinking, and teamwork, leading to a deeper grasp of frequency response analysis. |
| | | Peer Group Learning | Illustration with real time applications | Peer group learning encouraged cooperative engagement where students illustrated real-time biomedical applications of control systems. By explaining and analyzing concepts collaboratively, learners developed confidence, applied theory to practice, and strengthened their problem-solving and teamwork skills. |
| Name of the Course Coordinator : Ms.K.K.Leka, AP/BME | | | | | |
| 7 | III | 19BM502 Biomechanics | Group Discussion | Mechanics of bone structure | The group discussion on bone mechanics encouraged students to explore the structural and functional aspects of bones through teamwork and idea exchange. It promoted active participation, communication, and deeper understanding of load-bearing capacity and stress distribution in bones. The activity enhanced analytical thinking and helped relate theoretical principles to real physiological conditions. |
| | | Flipped Classroom | Types of Prosthetic Valves | In the flipped classroom on prosthetic valves, students reviewed learning materials beforehand and actively participated in class discussions. This approach improved engagement, understanding of valve design and biomechanics, and encouraged self-directed learning. Faculty guidance helped bridge theoretical concepts with practical applications in cardiovascular prosthetics. |
| | | Peer Teaching | Mechanics Properties of Bone | The peer teaching session allowed students to present and explain the mechanical properties of bone, improving confidence, clarity, and collaboration. Presenters demonstrated ownership of learning, while peers benefited from simplified peer explanations. The method enhanced comprehension of complex biomechanical properties through interactive and relatable discussions. |
| | | Quiz | Pulse wave velocities in arteries | The quiz on pulse wave velocity served as an engaging tool to assess and reinforce students’ knowledge of arterial mechanics. The competitive format promoted enthusiasm, quick recall, and critical application of theoretical concepts. It effectively consolidated learning outcomes and identified areas needing further clarification. |
| | | Role Play | Gait analysis | The role play on gait analysis transformed a theoretical concept into an experiential learning activity. Students enacted different gait phases, illustrating movement coordination and biomechanical principles. This approach promoted visualization, teamwork, and understanding of gait abnormalities, making learning more interactive and memorable. |
| Name of the Course Coordinator : Ms.M.Mohanavalli, AP/BME | | | | | |
| 8 | III | 19BM504 Biomedical Instrumentation | Role Play | Basic Medical Instrumentation System | The role play activity helped students visualize the working of a basic medical instrumentation system by enacting the functions of each component such as sensors, amplifiers, and display units. This interactive method enhanced engagement, conceptual understanding, and teamwork, allowing students to connect theory with real clinical applications. |
| | | Practical based Learning | EEG 10-20 Electrode System | Through hands-on practice with the EEG 10-20 system, students gained practical skills in electrode placement and signal acquisition. The session improved their understanding of brain mapping techniques and the importance of accurate electrode positioning, reinforcing both technical and analytical competence. |
| | | Peer Group Learning | Instrumentation Amplifier | In this collaborative activity, students worked in small groups to understand and build instrumentation amplifier circuits. The peer interaction promoted problem-solving, critical thinking, and shared learning, helping students strengthen their grasp of amplification principles essential for biomedical signal processing. |
| | | Practical based Learning | Measurement of Pulse rate | The hands-on experiment on pulse rate measurement provided students with direct exposure to biosignal acquisition and interpretation. The practical session fostered active learning and linked physiological concepts with instrumentation principles, improving students’ technical confidence and data analysis skills. |
| | | Practical based Learning | Bed side Monitors | By working directly with bedside monitoring systems, students understood the integration of sensors, signal conditioning, and display mechanisms used in patient monitoring. This real-time experience deepened their comprehension of clinical instrumentation and emphasized the role of biomedical engineers in healthcare monitoring environments. |
| Name of the Course Coordinator : Dr.P.Brindha, ASP/BME | | | | | |
| 9 | III | 19BM505 | Group Discussion | Bio Signal Characteristics of | The group discussion helped students understand the bio-signal characteristics of electrogastrograms through collaborative learning and peer interaction. Active participation encouraged them to analyze signal patterns, frequency components, and physiological relevance. The session improved communication, teamwork, and conceptual clarity of gastrointestinal signal analysis. |
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| | | Peer Group Learning | Application in Heart rate variability and | Peer group learning enabled students to collaboratively explore the applications of heart rate variability and phonocardiogram (PCG) signals in clinical diagnosis. Working in groups enhanced problem-solving, interpretation skills, and understanding of signal correlation with physiological parameters. The activity fostered teamwork, analytical thinking, and deeper conceptual grasp. |
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| | | Quiz | Adaptive wavelet detection | The quiz on adaptive wavelet detection effectively assessed students’ understanding of signal decomposition and noise reduction techniques. It promoted active participation, quick recall, and critical application of theoretical concepts. The interactive format made learning engaging while reinforcing analytical and technical knowledge in biomedical signal processing. |
| Name of the Course Coordinator : Dr.A.Sathishkumar, Prof/BME | | | | | |
| 10 | II | 23ES306 Fundamentals of Electrical Engineering | Practical based Learning | Reciprocity theorem | The practical-based learning session on the Reciprocity Theorem enabled students to verify circuit principles through hands-on experimentation. This approach improved their analytical and measurement skills while linking theoretical electrical laws with practical outcomes. Students showed greater engagement and understanding of current–voltage relationships through direct observation and experimentation. |
| | | Peer Group Learning | Construction and Principle of operation: Three Phase Induction motor | In the peer group learning session, students collaboratively explored the construction and working principle of three-phase induction motors. The activity fostered teamwork, peer explanation, and collective problem-solving. It enhanced conceptual clarity and helped students connect motor operation with real-world industrial applications. |
| | | Group Discussion | Application of Servo motor | The group discussion on servo motor applications encouraged active participation and exchange of ideas on automation and control systems. Students analyzed diverse industrial and biomedical uses of servo motors, improving their understanding of feedback mechanisms. The collaborative format promoted communication, critical thinking, and application-oriented learning. |
| Name of the Course Coordinator : Ms.B.Pradeepa , AP/BME | | | | | |
| 11 | II | 23BM301 Human Anatomy and Physiology | Flipped classroom | Function of each component in the cell | The flipped classroom approach enabled students to study cell components before class and actively engage in discussions during sessions. It enhanced understanding of organelle functions and their interrelationships. Peer interaction and teacher facilitation deepened conceptual clarity and encouraged self-directed learning. |
| | | Video Enhanced Active Learning | Changes during muscle contraction | Video-based demonstrations effectively illustrated the sequence of events during muscle contraction, helping students visualize microscopic processes like actin–myosin interaction. The dynamic visual content increased engagement and retention while bridging theoretical and physiological understanding. |
| | | Hands on Labs | Blood : Composition & Functions | Hands-on laboratory sessions allowed students to analyze blood components through experiments, reinforcing theoretical knowledge with practical experience. The activity promoted observational skills, teamwork, and scientific reasoning, making learning more experiential and outcome-oriented. |
| | | Puzzle | Skin and Sweat glands | The puzzle activity on skin and sweat glands fostered curiosity and critical thinking by encouraging students to connect structural and functional aspects in an enjoyable way. It promoted problem-solving, collaboration, and active participation while reinforcing key anatomical concepts through interactive learning. |
| Name of the Course Coordinator : Ms.N.Ageela, AP/BME | | | | | |
| 12 | II | 23BM302 Pathology and Microbiology | Group Discussion | Cellular adaptations of growth and | The group discussion encouraged students to analyze various cellular adaptations such as hypertrophy, hyperplasia, and metaplasia, linking them with pathological conditions. Active participation fostered critical thinking and collaborative learning. Students developed better conceptual understanding and communication skills through peer interaction. |
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| | | Quiz | Growth Curve, Identification of Bacteria | The quiz activity reinforced knowledge of bacterial growth phases and identification techniques through engaging and competitive participation. It helped assess comprehension, improve recall, and motivate students to review key microbiological concepts. The interactive format made learning both effective and enjoyable. |
| | | Peer Group Learning | Preparation of samples for electron | Peer group learning provided hands-on exposure to the steps involved in electron microscopy sample preparation. Students collaborated effectively, enhancing their technical understanding and teamwork. The activity promoted experiential learning, bridging theoretical microbiology with practical laboratory applications. |
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| | | Quiz | Culture techniques | The quiz on culture methods tested students’ grasp of microbial isolation and growth procedures. It encouraged quick thinking and reinforced procedural knowledge essential for diagnostic microbiology. The approach maintained student interest while ensuring concept retention through active participation. |
| | | Group Discussion | Auto- immune disorders: Basic concepts and classification | The group discussion on autoimmune disorders allowed students to explore disease mechanisms and classifications collaboratively. It enhanced comprehension of immune system dysfunctions and improved reasoning and presentation skills. The activity fostered teamwork and deepened understanding through shared perspectives. |
| Name of the Course Coordinator : Ms.B.Pradeepa , AP/BME | | | | | |
| 13 | II | 23BM303 Human Physiology Laboratory | Video Enhanced Active Learning | Estimation of Hemoglobin | The video-enhanced learning session on hemoglobin estimation provided clear visualization of laboratory procedures, enhancing students’ practical understanding and accuracy in performing the experiment. The use of instructional videos increased engagement and confidence in handling equipment. Students were able to correlate visual demonstrations with hands-on practice, leading to better retention and conceptual clarity. |
| | | Virtual Lab simulations with case based Learning | Study and identification of different bones of human skeletal systems | The virtual lab simulation on bone identification allowed students to explore the human skeletal system interactively and relate it to real anatomical cases. The case-based approach deepened understanding of bone types and structures while fostering analytical thinking. Students appreciated the realistic simulation environment, which enhanced participation and bridged theoretical anatomy with clinical relevance. |