By understanding the cause of such particularities, the radiographer should be able to identify and deal with most of the high-field strength-related difficulties, despite some hardware-related situations which cannot be dismissed. This presentation will revise the physical explanation for most of the artefacts present in high-field strength MRI, on both body and neuroimaging studies, as well as ways to avoid or compensate for them without impairment of diagnostic quality. MRI is a safe technique for imaging the foetus due to the lack of ionising radiation. It is considered an adjunct to ultrasound for studying the foetal brain in vivo and additionally offers improved soft tissue differentiation and increased field of view compared to ultrasound. The use of MRI in this field of diagnosis is increasing steadily following hardware and software advancements as well as clinical needs. Perhaps, the single most important problem in foetal MRI after low signal-to-noise ratio (SNR) is foetal motion, which can induce severe motion artefacts and turn images non-diagnostic. Foetal motion is unpredictable and it is currently one of the most challenging areas for motion correction for image post-processing. However, there are many different ways to compensate for foetal motion from a patient preparation/ protocol planning point of view (sequence optimisation, scanning time minimisation, motion-resistant MRI protocols) and the radiographer's knowledge and contribution are essential to this end. This paper will review different motion compensation techniques in foetal MRI from a radiographer's perspective. High-field magnetic resonance (MR) imaging may provide better SNR compared to low field. Many are excited about the opportunity not only to use the increased SNR for clearer images, but also to exchange it for better resolution or faster scans. The benefits of 3 T MR imaging in the depiction of CNS were initially established. In addition, it has been recently noticed that also body and cardiac high-field imaging combined with parallel imaging techniques decreases scan time exam and resultant motion artefacts, resulting in higher image quality compared to low field. Specifically, high-field MRI has increased susceptibility effect and prolonged T1 relaxation time. The first improves the sensitivity to the presence of haemorrhages and produces better perfusion and functional images, while the second has been exploited to succeed superior time-of-flight MRA angiographies and T1 contrast-enhanced imaging. Chemical fat suppression can be optimised due to the processional frequency difference between fat protons and water protons, which is double at 3.0 T compared to 1.5 T. Combined with the ability to increase resolution, high-field MRI is superior in the depiction of breast, musculoskeletal, adrenal, in mrcp and in spectacular. Recently, 3-dimensional contrast-enhanced magnetic resonance venography in high-field MRI has been able to more clearly visualize intracranial venous, vena cava and peripheral veins. MRI at high field combined with phased array coil, modern sequences and techniques is promising for the future and in the edge of technology. Therefore, every radiographer should be familiar with it and apply it properly. Learning Objectives: 1. To be able to identify human anatomical areas where the use of high field MRI is advantageous compared to low field MRI. 2. To be able to identify human body and brain pathologies whose depiction is facilitated by high field MRI compared to low field MRI. The use of high-field magnetic resonance imaging (MRI) is known to provide better signal-to-noise ratio, spatial resolution and fat suppression efficacy, enabling increased quality on morphological images, as well as on spectroscopy and functional Saturday urge for competing at the highest level leads to intensive training programmes in young children and adolescents. The growing lumbar spine is an area of well-known overuse-related injuries. Within the range of stress-induced bone marrow oedemalike patterns of abnormality, the devastating end stage is a stress fracture of the pars intervertebralis. The potential role of imaging, both in detecting as well as prognosis, is discussed. Imaging strategy both in the acute as well as the overuse type of injury will finalise the presentation. The Egyptian Society of Radiology and Nuclear Medicine is invited to meet the European Society of Radiology and to be given the opportunity to present some of the main topics which are of special interest to our community. Egypt is the largest country in the Middle East with a population exceeding 80 millions. Imhotep the great Egyptian pharaoh is recognised as the founder of medicine and the world's first doctor in 27th century BC (2655-2600 BC). The number of radiologists in Egypt is approximately 3425, working in more than 565 public and university radiology departments as well as 258 specialised private radiology centers. In this session we have chosen to give an overview of imaging of the more frequent cancers in Egypt namely urinary bladder, liver and breast. The place of imaging of bladder carcinoma and its relation to schistosomiasis will be highlighted. The Egyptian experience in interventional management of hepato-cellular carcinoma shall be presented. An update of the Egyptian National Screening program for early detection of breast cancer among Egyptian women will also be demonstrated. We have also thought of Paleoradiology in imaging Egyptian mummies as an interesting topic with the use of Multi Detector CT to unveil their secrets. Three short interludes, between presentations, will tackle urinary diversion and ancient Egyptian medicine and present Egypt's charm. Intramedullary and intradural-extramedullary tumours are less common than intracranial tumours. Spinal cord enlargement and heterogeneous appearance with solid and cystic components represent the main characteristics of intramedullary tumours. Low grade astrocytomas (pilocytic) are the most common, followed by gangliogliomas. Extensive involvement of the spinal cord is common. Holocord involvement and calcifications are most frequently seen in gangliogliomas. Paediatric intramedullary ependymomas are almost never seen outside the context of NF2. Metastatic disease due to CSF seeding of intracranial tumours (medulloblastomas) represents the most common intradural-extramedullary tumours. Multiple intradural neurinomas and meningiomas are found in NF2. Inflammatory demyelinating disorders my affect the cord and the spinal nerve roots in childhood. Guillain-Barre syndrome is an autoimmune acute demyelinating poly-radiculoneuropathy characterised by either diffuse or ventral nerve root enhancement. Spinal cord lesions in multiple sclerosis (MS) are mainly located dorsolaterally, extend over less than two vertebral segments in length and affect less than half the cross-sectional area of the cord. Spinal cord lesions in acute disseminated encephalomyelitis (ADEM) extend over more than three vertebral segments in length and occupy more than two-thirds of the cross-sectional area of the cord. Differences in brain and spinal cord imaging findings are useful in the differential diagnosis between MS and ADEM. Spinal cord involvement similar to that found in ADEM may be found in idiopathic acute transverse myelitis (ATM) and in neuromyelitis optica (NMO). Lack of brain involvement in ATM and the presence of the NMO-specific IgG autoantibody are useful in the differential diagnosis with ADEM. Learning Objectives: