Sessions

Biomaterials are materials that can be either natural or made in a lab. They are made to work with the body for medical uses like implants, artificial body parts, ways to give medicine, or structures to help tissues grow. These materials need to be safe for the body, so they have to follow certain rules about how they act with the body, how strong they are, and what chemicals they have.
Metals
Polymers
Ceramics
Composites
Natural Biomaterials

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Biomechanics in biomedical engineering looks at how mechanical forces and movements work in the body. It helps doctors and scientists understand, find out about, and fix health problems. This field studies the forces and how parts of the body move, starting from tiny cells up to entire bodies. This knowledge is used to make better medical tools like prosthetics and implants, to improve treatments for recovery, and to learn more about diseases and injuries.

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The field brings together biology, computer science, and statistics to study and understand big sets of biological data, such as DNA, RNA, and protein sequences. It is an important area that creates computer tools and techniques to solve difficult problems in medicine and biology. This field helps in making new discoveries in areas like custom medicine, finding new drugs, and diagnosing and treating diseases. A conference description should show how this field uses data-based analysis, special algorithms, and new tech like AI and machine learning.

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Infectious Disease Technologies
This session showcases the latest advancements and biomedical tools designed to detect, prevent, and treat infectious diseases around the world.
It connects researchers, doctors, and engineers who are working on improved ways to diagnose illnesses, create vaccines, develop treatments, and monitor disease spread to better fight health challenges globally.

New diagnostic tools and biosensors
Tests that can be done right at the patient’s location and small lab-like devices that fit in your hand
Using AI and data analysis to track diseases and predict outbreaks
Creating new vaccines and ways to deliver them effectively
Identifying and managing drug resistance in infections
Using genetic and molecular methods to recognize harmful germs
Producing vaccines and treatments quickly through modern manufacturing
Preparedness for new diseases and large-scale health emergencies
Technology used in public health and tracking how diseases spread

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Women's health technologies   involve various tools and systems that help with different aspects of women's health. These include wearable devices that track health data, AI tools that help in diagnosing medical conditions, platforms that allow remote healthcare access, and advanced fertility and family planning technologies such as AI-assisted IVF and new contraceptive options.

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Bioengineering is a field that uses engineering ideas to work with living systems. Synthetic biology is a part of this field that focuses on creating new parts, tools, and systems in biology, or changing existing ones. Synthetic biology often deals with more complicated designs that involve many genes, while bioengineering covers a broader range of uses, such as creating tissues or making medical tools.

- Genetic and Genome Engineering: This involves making new genetic systems, gene circuits, and even whole genomes from scratch.

- Metabolic Engineering: This area is about changing how organisms process chemicals so they can make specific products.

- Biomaterials and Tissue Engineering: This includes making materials that can be used in the body and creating tissues, organs, and small organ-like structures for medical use.

- Biosensors and Biomolecular Electronics: This involves making sensors and electronic systems that use biological molecules to detect things or perform other functions.

- Bioprocess Engineering: This is about designing and improving processes that use living things to make products, like fermentation and large-scale biological manufacturing.

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Bio fabrication and 3D bioprinting are starting a new chapter in regenerative medicine. This session looks at recent progress in bioinks, printing organ-like structures, and building tissues for more accurate models and medical treatments. Scientists are using materials science, computer-based design, and cell biology to make detailed, working biological parts that can be used for testing new drugs and for transplants.

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Global Health Technologies are new tools, systems, and methods created to deal with health problems that affect people around the world, especially in countries that aren't as wealthy. These technologies help make healthcare more available, control diseases, strengthen public health systems, and work toward fairer health outcomes for everyone. They include a variety of solutions like medical equipment, testing methods, digital health tools, vaccines, and ways to prevent diseases.

The goal of Global Health Technologies is to cut down on health differences, lower the cost of healthcare, and improve health results for many people.
As the world becomes more connected, these technologies are important for dealing with both new and long-standing health issues, such as infectious diseases, chronic illnesses, health for mothers and children, and access to clean water and proper sanitation.

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Cardiovascular engineering uses engineering ideas to create, develop, and improve medical tools and technologies that help treat and manage problems with the heart and blood vessels. It includes things like artificial heart valves, stents, pacemakers, and imaging tools used to detect heart issues. The goal is to make the heart healthier, help patients recover better, and find better ways to treat heart and blood vessel diseases.

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Cancer Technology involves using advanced tools and new methods to help detect, treat, and manage cancer. It includes things like medical imaging, biotechnology, nanotechnology, personalized medicine, and computer-based systems. These technologies are designed to improve how we care for cancer patients and help them recover better. Since cancer is a complicated disease that affects many parts of the body, creating specialized technologies is important for finding cancer early, targeting only the cancer cells, reducing harmful side effects, and giving patients individualized treatment plans.

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Biomedical imaging and signal processing use special tools to get pictures and data from the body to help with medical care. Imaging methods like X-rays, MRI, CT scans, and ultrasound show the inside of the body. Signal processing looks at the data from these images or from devices like EEG and ECG that measure electrical activity. These tools help doctors understand health issues, decide on treatments, and check how patients are doing over time, all with a lot of accrue

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The human microbiome is very important for how our body handles energy, fights infections, and keeps the brain healthy. This session will focus on how to design and use microbes in medical treatments, create new kinds of medicines made from microbes, and study the genes of all the microbes in the body to prevent and better treat diseases. Scientists are using advanced tools to study biological systems and understand how microbes work together, so they can improve health care and fight long-term illnesses more effectively.

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Nanotechnology is about working with very tiny particles, smaller than a grain of dust, to make new materials and tools that have special abilities. These can be used in medicine, electronics, and industries. Microtechnology is similar but focuses on making small devices and systems that are a bit bigger than nanoscale, usually in the range of micro meters. Both these areas help create cutting-edge technologies like medicine that delivers drugs exactly where they're needed, sensors that detect things very precisely, and tiny computer parts like microchips. These technologies are used in many areas including healthcare, electronics, and making products.

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Epigenetics and gene editing are changing the field of molecular medicine by allowing exact changes to the genome. This session covers CRISPR tools, RNA-based treatments, and methods to modify chromatin for fixing diseases. Experts will talk about recent progress in reprogramming genes, treating inherited conditions, and the ethical issues that come with altering the genome in personalized medicine.

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Nanomedicine and nanobiotechnology are areas that use very small materials and technology in medicine and biotechnology. These fields use the special features of materials that are really tiny, usually between 1 and 100 nano meters, to create new ways to diagnose, treat, and prevent diseases. They also help solve problems in biotechnology. These areas could change medicine and biotechnology by making treatments more accurate, lowering unwanted effects, and helping find diseases earlier.

 

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Ethics, policy, and regulation issues in biomedicine come from how fast science is advancing. This leads to problems in areas such as keeping research honest, making sure patients are safe, getting proper consent from people who take part in studies, protecting personal data, and making sure new treatments are available fairly to everyone. Important challenges include finding a balance between encouraging new discoveries and keeping ethical standards, protecting those who take part in research, dealing with situations where personal interests might interfere with fair practices, and creating clear and consistent rules around the world.

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Neural engineering uses engineering methods to study, fix, or improve the nervous system, especially the brain and spinal cord. Brain-Computer Interfaces (BCIs) are an important part of this field. BCIs let people communicate directly with outside devices by using signals from the brain. This technology helps people control prosthetics, computers, or other machines with their thoughts. It also has the potential to make big differences in treating brain disorders and helping people with disabilities live better lives.

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Biomedical Robotics and Wearable Devices looks at how math and biomedical engineering come together in new and creative ways. The book starts by explaining how advanced math models help create and improve robotic systems and wearable tech used in medical settings. It focuses a lot on real-world applications, helping connect ideas from theory to actual problems faced in healthcare. Readers will learn about how math plays a key role in making medical technologies more precise, useful, and focused on people's needs.

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Artificial Intelligence (AI) and robotics are changing the way healthcare works, making it more accurate, faster, and tailored to individual needs. These technologies can greatly improve how doctors diagnose illnesses, plan treatments, take care of patients, and manage healthcare services. Here's a closer look at how AI and robotics are playing a part in healthcare.

 

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Finding and creating new medicines is a long, tough, and fulfilling journey. These medicines help save lives and make life better for many people. Developing drugs  you need a prescription or can buy without one, vaccines, treatments that use cells, medical tools, and even surgeries or other kinds of care can stop illnesses from getting worse or even fix them. But it usually takes 10 to 15 years and costs billions of dollars to get a new treatment or cure available for people.

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Clinical trials are research studies done on human volunteers to test new medical treatments and see if they are safe and work well. They are a key part of creating and getting approval for new treatments, such as medicines, medical devices, or surgeries and therapy methods. These trials happen in different stages to collect information step by step. Therapeutic innovation is the whole process of making and using new and better treatments, and it depends a lot on the results from clinical trials.

 

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