Imaging and Radiology Procedures

Scenes depicting patients undergoing imaging scans. Features advanced medical equipment such as CT and MRI machines with healthcare workers.

Young male radiographer operating CT scanner in radiology department

Hispanic nurse comforting patient at scanner

Reportage in a radiation oncology service in Switzerland. The service is equipped with the latest linear accelerator, the Truebeam. A technician sets a patient up for prostate cancer treatment.

Doctor, mri and woman holding hands of patient in hospital before scanning in machine. Ct scan, comfort and medical professional with senior female person in radiology test for healthcare in clinic.

Medical CT or MRI Scan in the modern hospital laboratory. Interior of radiography department. Technologically advanced equipment in white room. Magnetic resonance diagnostics machine Medical CT or MRI Scan in the modern hospital laboratory. Interior of radiography department. Technologically advanced equipment in white room. Magnetic resonance diagnostics machine. ,model released, Symbolfoto Copyright: xZoonar.com/MaksimxPavlovx 17853298 ,model released, Symbolfoto ,property released

Patient getting an MRI

PET scan. Patient undergoing a positron emission tomography (PET) scan. A positon emission tomography exam allows the study of metabolic function of organs. It detects the presence of radioactive tracer molecules that have been injected into the patient's bloodstream and absorbed into the tissues.

Man entering mri scanner

Young male radiographer operating CT scanner in radiology department

Reportage in Pitié Salpêtrière hospital in Paris, France.

Man having CT scan

Stereotactic Neurosurgery operation, Pasteur 2 Hospital, Nice, France, Treating Parkinsons disease through deep brain stimulation, by implanting electrodes in brain, modulating abnormal cerebral electrical activity, The room is equipped with a pre-op O-arm scanner and NeuroMate, a stereotactic robot. The robot enables surgeons to optimize and increase reliability of their operating technique, and the O-arm enables real time 3D images to be obtained to improve the precision, safety and efficiency of the operation. Preparing the O-arm scanner. (Photo by: BSIP/UIG via Getty Images)

Medical CT or MRI Scan with a patient in the modern hospital laboratory. Interior of radiography department. Technologically advanced equipment in white room. Magnetic resonance diagnostics machine Medical CT or MRI Scan with a patient in the modern hospital laboratory. Interior of radiography department. Technologically advanced equipment in white room. Magnetic resonance diagnostics machine. ,model released, Symbolfoto Copyright: xZoonar.com/MariyaxLvovax 17860468 ,model released, Symbolfoto ,property released

Digital medical imaging centre in Paris, France. MRI knee.

A computer tomograph (CT) is an imaging procedure in radiology, here on 21.11.1995 in Schwerte in a radiology practice, and is used for modern diagnostics in medicine, DEU, Germany, Schwerte, Europe

Medical CT or MRI Scan in the modern hospital laboratory. Interior of radiography department. Technologically advanced equipment in white room. Magnetic resonance diagnostics machine Medical CT or MRI Scan in the modern hospital laboratory. Interior of radiography department. Technologically advanced equipment in white room. Magnetic resonance diagnostics machine. Copyright: xZoonar.com/MariyaxLvovax 17849200

Reportage in a radiology service in a hospital in Haute-Savoie, France. MRI scan.

Reportage in the stereotactic neurosurgery operating theatre in Pasteur 2 Hospital, Nice, France. Treating Parkinsons disease through deep brain stimulation. This technique consists of implanting electrodes in the brain, which modulate abnormal cerebral electrical activity. Carrying out the pre-op MRI scan. The scan will enable electrode targets and trajectories to be established.

Bone density scan.

Report from the radiotherapy department of a hospital in Savoie. Centering under scanner before treatment. This patient is being treated for breast cancer.

happy patient undergoing mri scan at hospital

1980s MEDICAL TECHNICIAN WITH PATIENT OPERATING A NUCLEAR MAGNETIC RESONANCE IMAGING MRI SCANNER

ExAblate® 2000 system with MR guided focused ultrasound uses a combination of high-intensity ultrasound waves and Magnetic Resonance Imaging (MRI) to simultaneously locate and 3D image the uterine fibroma, treat and destroy the tissus by thermoablation. This non-invasive treatment is an alternative to surgery. Here, patient undergoing the treatment. Bretonneau hospital, University Hospital of Tours, France.

Patient lying in a linear particle accelerator for radiation treatment, Germany, Europe

USA, Utah, Payson, Young woman during Magnetic Resonance Imaging

Male patient undergoing a CT scan, Croix Saint Simon hospital, Paris, France.

Patient undergoing 3D Computed Tomography (CT) scan of the heart with a 64-Slice CT Scanner. Producing 64 slices per rotation, this advanced equipment is the first in France used only for heart diagnostic. The very high definition 3D images produced in less than 10 secondes are a usefull non invasive technique to observe a mobile organ like the heart. Heart and Lung Center, department of Pr Allal, University Hospital of Poitiers, France.

Sterile room in a cancer hospital.

Computer tomography, CT, in a hospital

Mammography

Healthcare

a nurse activing mri scanner

MRI or magnetic resonance imaging of the skull.

Scanner within a CHU.

Female patient undergoing a CT scan, Croix Saint Simon hospital, Paris, France.

Hispanic nurse checking scanner

Reportage in a radiation oncology service in Switzerland. The service is equipped with the latest linear accelerator, the Truebeam. Technicians set a patient up for prostate cancer treatment.

Radiotherapy radiographer with a male patient treated for a brain cancer with radiotherapy. Latest generation particle accelerator. Radiotherapy center pole of Oncology Hospital of Bordeaux. Radiotherapy center pole of Oncology Hospital of Bordeaux. Hospital Haut-Leveque.

Smiling patient having brain scan

Digital medical imaging centre in Paris, France. Injecting a contrast agent for a CT scan.

Scanner in a hospital radiology department.

Report from the radiotherapy department of a hospital in Savoie. Centering under scanner before treatment. This patient is being treated for breast cancer.

Reportage in the stereotactic neurosurgery operating theatre in Pasteur 2 Hospital, Nice, France. Treating Parkinsons disease through deep brain stimulation. This technique consists of implanting electrodes in the brain, which modulate abnormal cerebral electrical activity. Carrying out the pre-op MRI scan. The scan will enable electrode targets and trajectories to be established.

Doctors discussing MRT result with patient

Young woman / patient at the magnetic resonance

Patient undergoing a Computed Tomography (CT) scan of the brain (Cerebrovascular Accidents (CVA)), Bordeaux hospital, France.

Radiology technicians monitoring MRI scan in progress

Digital medical imaging centre in Paris, France. Skull MRI.

Patient lying in a computed tomography, CT scanner, Germany, Europe

Hispanic doctor using digital tablet in MRI room

radioactive cancer treatment in hospital, india Copyright: xHarixMahidhar/DinodiaxPhotox

$Reportage at the New Vision clinic in Nice, France. This clinic is one of the main centres for refractive surgery in France, with cutting-edge technology for all eye laser operations. The SMILE (Small Incision Lenticule Extraction) laser technique is a new generation of treatment which enables short-sightedness to be corrected without removing the superficial layer of the cornea, nor opening it. The laser used is a new form of Femtosecond laser, the Femtosecond VisuMax® equipped with the ReLEx® SMILE module.$

Radiologist holding test results next to CT scanner

Doctor with patient undergoing proton therapy in a medical facility

Doctor consulting with patient in a radiology room examining spine x-ray

Reportage at the Neuroimaging research centre in Pitié Salpêtrière hospital in Paris, France. Magnetoencephalography (MEG) platform. MEG detects variations in the brain's magnetic field during various types of cerebral activity. It studies normal and abnormal brain function. Recording the magnetic field produced by neuronal currents requires ultra sensitive sensors called SQUIDs (Superconducting Quantum Interference Device). The 306 sensors spread over 102 areas allow both near and far magnetic fields to be measured, and the brain's deep structures to be 'seen'. The person receives visual stimulation (faces with different expressions) from a high resolution video projector onto a projection screen. The screen is coupled with a high speed system that follows eye movement.

Report from the radiotherapy department of a hospital in Savoie. Two technicians set up a patient for a radiotherapy session to treat breast cancer. An electron localizer is used to provide additional surface dose. Indeed, this patient underwent surgery and some cancerous cells were able to migrate to these tissues.

Woman lying in CAT scan machine

Reportage in a hospital. CT scanner.

Medical CT or MRI Scan in the modern hospital laboratory. Interior of radiography department. Technologically advanced equipment in white room. Magnetic resonance diagnostics machine Medical CT or MRI Scan in the modern hospital laboratory. Interior of radiography department. Technologically advanced equipment in white room. Magnetic resonance diagnostics machine. Copyright: xZoonar.com/MariyaxLvovax 18153903

Ct scanner examination

Scanner at hospital

Reportage in a radiology service in a hospital in Haute-Savoie, France. Scanner.

Digital tomography equipment Digital tomography equipment Copyright: xZoonar.com/ALEXxTIHONOVx 3952192

Reportage at the Neuroimaging research centre in Pitié Salpêtrière hospital in Paris, France. Magnetoencephalography (MEG) platform. MEG detects variations in the brain's magnetic field during various types of cerebral activity. It studies normal and abnormal brain function. Recording the magnetic field produced by neuronal currents requires ultra sensitive sensors called SQUIDs (Superconducting Quantum Interference Device). The 306 sensors spread over 102 areas allow both near and far magnetic fields to be measured, and the brain's deep structures to be 'seen'. The person receives visual stimulation (faces with different expressions) from a high resolution video projector onto a projection screen. The screen is coupled with a high speed system that follows eye movement.

Technician preparing scanner for doctor comforting patient

Radiologist at work in hospital

A young man about to have an MRI scan.

Mammography

Hispanic patient laying in MRI machine

Centre for Radiopharmaceutical Tumour Research

Report from the Neuro Imaging Research Center located at the Pitié Salpêtrière in Paris. Magnetoencephalography (MEG) platform. MEG makes it possible to detect the variations in the magnetic field that accompanies the various cerebral activities. It is used to study normal or abnormal functioning of the brain. The recording of magnetic fields induced by the electrical activity of neurons requires the use of ultra-sensitive sensors called SQUIDs (Superconducting Quantum Interference Device). The 306 sensors are spread over 102 sites, which makes it possible to measure near and far magnetic fields, allowing a better view of the deep structures of the brain. Here the subject wears an EEG helmet (Electroencephalography) which makes it possible to combine MEG and EEG.

Wrist X-ray

Reportage in a radiation oncology service in Switzerland. The service is equipped with the latest linear accelerator, the Truebeam. This machine carries out intensity modulation radiation therapy with one or mutiple arcs (RapidArc), adapted to all areas and types of cancer. It also allows stereotactic radiation therapy. A scanner known as the Cone Beam CT has been integrated into the TrueBeam in order to optimise treatment. It allows images to be captured during treatment in order to follow the movement of the tumor during irradiation, and to adapt the treatment in real time. Thanks to the recordings of breathing movement, the TrueBeam allows the most mobile organs and tumors to be treated while limiting uncertainties on the volume to be covered during treatment.

Mri machine, patient or doctors with tablet for test results, discussion or medical advice for diagnosis. Healthcare, listening or people in hospital for consultation, tech or explain follow up care

Female patient undergoing dynamic X-ray scan using tilting fluoroscopy wall unit. Female patient undergoing dynamic X-ray scan using tilting fluoroscopy wall unit, radiographic table with wall stand. model released

Bone scintigraphy, nuclear medicine department.

Woman sitting on CT scanner bed, waiting for examination Anxious woman sitting on CT scanner bed, waiting for examination model released

Woman undergoing x-ray in lab

USA, Utah, Payson, Young woman during Magnetic Resonance Imaging

Reportage at the Neuroimaging research centre in Pitié Salpêtrière hospital in Paris, France. Magnetoencephalography (MEG) platform. MEG detects variations in the brain's magnetic field during various types of cerebral activity. It studies normal and abnormal brain function. Recording the magnetic field produced by neuronal currents requires ultra sensitive sensors called SQUIDs (Superconducting Quantum Interference Device). The 306 sensors spread over 102 areas allow both near and far magnetic fields to be measured, and the brain's deep structures to be 'seen'. The person receives visual stimulation (faces with different expressions) from a high resolution video projector onto a projection screen. The screen is coupled with a high speed system that follows eye movement.

3D CT scan. Patient undergoing a 3D Computed Tomography (CT) scan.

Reportage in a radiology service in a hospital in Haute-Savoie, France. Scanner.

Report on PET imaging. Positron Emission Tomography, or PET Scan, is used for the diagnosis and monitoring of cancer patients. This method makes it possible to detect a tumor thanks to a radioactive product which accumulates in an excessive way in the cells presenting a pathological hypermetabolism.

Report on PET imaging. Positron Emission Tomography, or PET Scan, is used for the diagnosis and monitoring of cancer patients. This method makes it possible to detect a tumor thanks to a radioactive product which accumulates in an excessive way in the cells presenting a pathological hypermetabolism.

Oncological hadrontherapy allows a great precision of treatment.

Patient lying on CAT scan machine while doctors consult in background

Technician talking to patient at scanner

CT scan-assisted biopsy, Saint-Louis hospital, Paris, France.

Technician preparing scanner for doctor comforting patient

A CT scan machine with patient and nurse

Computed tomography scanner

Reportage in a radiology service in a hospital in Haute-Savoie, France. Scanner.

Doctor and patient in a radiology treatment room with advanced medical equipment

Reportage at the Rinecker Proton Therapy Center in Munich, Germany. The centre has the latest equipment for proton therapy treatment. Proton therapy involves irradiating cancer cells by concentrating a proton beam on the heart of the tumour, while preserving the healthy surrounding tissue.

A CT scan technician aligning a patient in the machine

Doctor observing the images of a scanner in the emergency room of a university hospital

Doctor operating proton therapy equipment for cancer treatment in a hospital

Equipment in oncology department. Nuclear Medicine Equipment in oncology department. Nuclear Medicine Copyright: xZoonar.com/ALEXxTIHONOVx 3952181

Caucasian doctor comforting patient near scanner

Hybrid operating room, Deutsches Herzzentrum Berlin or German cardiac center, Berlin, Germany, Europe

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