CAR T-cell therapy revolutionises cancer care, bringing hope where traditional treatments have been insufficient.
Human Body Imaging
Medical technologies encompass a vast array of tools, equipment, and techniques used to diagnose, treat, and prevent diseases and injuries. These technologies have revolutionised how healthcare is delivered and improved patient outcomes. One of the most significant medical technologies is medical imaging. These diagnostic tools, such as X-rays, CT scans, and MRI scans, allow doctors to visualise the body’s internal structures and detect abnormalities that may not be visible otherwise. This has led to earlier and more accurate diagnoses of cancer, heart disease, and neurological disorders. Another critical medical technology is telemedicine. This refers to using communication and information technologies to provide healthcare services remotely. Telemedicine has become increasingly important in recent years, particularly during the COVID-19 pandemic, as it allows doctors to consult with and treat patients without needing in-person visits. This technology can potentially improve access to healthcare, particularly in rural or underserved areas where there may be a shortage of medical professionals. In addition to diagnostic and telemedicine technologies, numerous medical devices are used to treat various conditions. For example, implantable devices such as pacemakers and artificial joints can significantly improve the quality of life for patients with heart conditions or joint problems. Other medical devices, such as insulin pumps and blood glucose monitors, are used to manage chronic conditions such as diabetes. Medical technologies also play a significant role in surgery. For example, minimally invasive procedures, such as laparoscopy, use small incisions and specialised instruments to perform surgeries with less pain, scarring, and recovery than traditional open surgeries. Robotics and other advanced technologies are also used to assist surgeons in conducting complex procedures with greater precision and control. While medical technologies offer tremendous benefits, they also pose some challenges. For example, the high cost of many medical technologies can make them inaccessible to some patients, particularly in low-income countries. There are also concerns about the possible overuse or misuse of specific technologies, which can lead to unnecessary procedures, increased costs, and risks to patient safety.
CAR T-cell therapy revolutionises cancer care, bringing hope where traditional treatments have been insufficient.
AI in radiology enhances accuracy, efficiency, and patient outcomes in medical diagnostics.
Radiomics harnesses advanced algorithms to unveil hidden patterns in medical images, enhancing disease diagnosis and treatment.
Terahertz imaging offers non-invasive, detailed insights across industries, from medical diagnosis to art conservation.
Photoacoustic imaging fuses optical specificity with ultrasound depth, revolutionising deep-tissue visualization in biomedical diagnostics and research.
Magnetic Particle Imaging harnesses superparamagnetic nanoparticles to provide rapid, sensitive, and radiation-free diagnostic imaging capabilities.
Immuno-PET merges monoclonal antibodies with PET imaging, transforming precision oncology through enhanced tumor detection and monitoring.
Total body PET systems provide unparalleled imaging detail, revolutionising diagnostics with faster, safer, and more comprehensive scans.
Magnetic Resonance Fingerprinting offers precise, efficient tissue characterisation, enhancing early diagnosis and management of diverse medical conditions.
Low-field MRI offers cost-effective, safer imaging with growing applications despite lower signal-to-noise ratio challenges.
Hyperpolarized Carbon-13 MRI transforms real-time imaging of metabolic processes, enhancing tumor detection and monitoring treatment efficacy.
EPRI maps free radicals, offering vital insights into diseases by visualising cellular oxidative processes non-invasively.
CEST MRI reveals molecular tissue details, enhancing early disease diagnosis without external contrast agents.
Compressed Sensing in MRI transforms patient diagnostics by drastically reducing scan times without compromising image quality.
Micro-ultrasound's detailed imaging necessitates expert analysis, mindful safety practices, and promises future multimodal diagnostic integrations.
EMAI combines electromagnetic fields with ultrasound to enhance non-destructive testing and medical diagnostics with high-resolution imaging.
Ultrasound Localization Microscopy offers unprecedented microvascular insights, transforming diagnosis and treatment through super-resolution imaging.
Ultrafast Doppler imaging offers unprecedented real-time insights into blood flow for improved diagnostic accuracy in medicine.
Superb Microvascular Imaging transforms diagnostics, revealing minute vessels with clarity, sans contrast agents, enhancing patient care.
Magnetomotive Ultrasound combines magnetic nanoparticles with ultrasound imaging for enhanced disease diagnosis and targeted therapeutic interventions.
Virtual non-contrast imaging revolutionises diagnostics, offering safe, efficient insights without contrast agent risks.
Photon Counting Computed Tomography enhances image quality, tissue differentiation, radiation reduction, and material decomposition via precise photon detection.
Medical imaging advancements, aided by deep learning reconstruction, enhance diagnosis accuracy and efficiency, overcoming traditional limitations.
Dark Field Computed Tomography enhances medical imaging by utilising X-ray scattering for improved contrast and resolution in soft tissues.
X-ray phase-contrast imaging offers enhanced soft tissue visualisation, improved contrast, and resolution over conventional X-ray techniques.
Dark-field radiography excels in early-stage lung disease detection, breast cancer diagnosis, microfracture visualisation, and soft tissue imaging.