- Open Access
Patient Safety in Medical Imaging: a joint paper of the European Society of Radiology (ESR) and the European Federation of Radiographer Societies (EFRS)
© The Authors. 2019
- Received: 12 February 2019
- Accepted: 18 February 2019
- Published: 5 April 2019
The fundamental professional roles of radiographers and radiologists are focused on providing benefit to patients with our skills, while maintaining their safety at all times. There are numerous patient safety issues in radiology which must be considered. These encompass: protection from direct harm arising from the techniques and technologies we use; ensuring physical and psychological well-being of patients while under our care; maintaining the highest possible quality of service provision; and protecting the staff to ensure they can deliver safe services. This paper summarises the key categories of safety issues in the provision of radiology services, from the joint perspectives of radiographers and radiologists, and provides references for further reading in all major relevant areas.
This is a joint statement of the European Society of Radiology (ESR) and the European Federation of Radiographer Societies (EFRS), published simultaneously in Insights into Imaging [DOI:10.1186/s13244-019-0721-y] and Radiography (DOI: 10.1016/j.radi.2019.01.009).
- Education and training
- Medical imaging
- Patient safety and radiation protection
While conferring enormous benefits on patients, radiological modalities, techniques, and procedures also involve some risks to the health and well-being of patients;
Fundamental to all applications of radiological techniques is the requirement that all possible efforts should be made to ensure patients are no worse off after their interaction with radiographers and radiologists than before;
Safety issues under a variety of headings are considered and explained, ranging from: direct results of exposure to radiation, through drug and contrast use, to less-obvious topics such as data protection and communication issues;
As part of a team caring for patients, radiologists and radiographers have responsibility for patient safety; joint attention to the primacy of patient safety in all we do is key to ensuring a safe environment for our patients.
Since the announcement of their discovery by Röntgen in December 1895, X-rays and the radiological techniques associated with their use have become increasingly central tools in medical diagnosis and management. As a result of the growth in the usefulness of imaging, other, non-radiation-based, imaging techniques have been developed (e.g. ultrasound and magnetic resonance imaging), and image-guided interventional means of treating patients have become commonplace. The benefits to patients from these methods of investigation and treatment have been immeasurable. However, it would be unwise to imagine that no harm can come to patients from the use of radiation-based and other imaging techniques, or from interventional radiology procedures. As with all areas of medicine, certainty of unqualified benefit cannot be provided, and appropriate judgment of the relative benefits and risks must by applied at all times. Radiographers and radiologists are specifically trained users of the imaging modalities involved. Paramount in their training is the optimal use of imaging for the benefit of patients and awareness of potential risks from the use of ionising radiation, including the need to minimise the likelihood of harm from inappropriate or excessive radiation use. Many other aspects of radiographer and radiologist practice encompass elements of awareness of, and care for, patient safety. In this paper, the European Society of Radiology (ESR) and the European Federation of Radiographer Societies (EFRS) jointly attempt to highlight many of the areas of patient safety that form part of normal practice for radiographers and radiologists, and which must always be considered when we use our skills to investigate and treat patients.
Radiation protection is a key aspect of maintaining the safety of patients in diagnostic and interventional radiology. The three fundamental principles of radiation protection of patients are justification, optimisation, and the application of doses As Low As Reasonably Achievable (ALARA) (ICRP103) . Under the umbrella of EuroSafe Imaging , the ESR and EFRS make strong commitments to all aspects of radiation protection of patients, occupational exposure of staff and the general population. A challenging task for European member states is the implementation of Council Directive 2013/59/Euratom (EU-BSS)  requirements in the medical sector into national law. The ESR successfully evaluated the activities in transposition with a European Commission tender project [4, 5].
At level I (the most general level), the proper use of radiation in medicine is accepted as doing more good than harm to patients and society.
At level II, a specified procedure with a specified objective is defined and justified (e.g. chest X-rays for patients showing relevant symptoms, or a group of individuals at risk for a condition that can be detected and treated). The aim of level II of justification is to judge whether the radiological procedure will improve the diagnosis or treatment, or will provide necessary information about the exposed individuals.
At level III, the application of a specific procedure to an individual patient should be justified in advance, taking into account the specific objectives of the exposure and the characteristics of the individual involved.
To support the referral and justification process of radiological procedures, the EU-BSS requires that in all EU member states referral guidelines for medical imaging, taking into account the radiation doses, are available to the referrers. Referral criteria apply at level II justification for common clinical conditions of patients and imaging procedures. With the ESR iGuide initiative , the ESR provides up to date and evidence-based European referral criteria embedded in a clinical decision support tool .
Optimisation and DRLs
The International Commission on Radiological Protection (ICRP) defines optimisation as the process of determining what level of protection and safety makes exposures, and the probability and magnitude of potential exposures, “As Low As Reasonably Achievable” (ALARA), economic and societal factors being taken into account. Optimisation applies to all individual patients after level III justification. This means the type of procedure, the dose, other physical imaging parameters, the use of contrast media, and other drugs must be adapted to the individual specific clinical question. As an example, for CT examinations the use of appropriate scan length, number of scan series, dose modulation, and iterative reconstruction are typical optimisation tools. To support the process of optimisation the EU-BSS requires the establishment, regular review and use of “Dose Reference Levels” (DRLs) for all EU member states; the ESR and EFRS support the European DRLs and have collaborated on several projects in this area. These projects include, for paediatric imaging, the PiDRL project [7, 8] which established age and weight dependent DRLs for common paediatric procedures. Today most DRLs are based on anatomical regions or body parts to be examined but only a few are based on clinical questions. The ongoing EUCLID  project will establish clinical DRLs for adults where the dose of a procedure for one anatomical region will be modified depending on the clinical question .
Justified and unjustified too-high exposures of patients undergoing a specific procedure, imaging of a wrong body part, or imaging the wrong patient are rare, but may happen from time to time. The term “dose incidents” is a summary of the definition given by the EU-BSS for unintended and accidental overexposures in Article 4 (99): "medical exposure that is significantly different from the medical exposure intended for a given purpose”. In the case of diagnostic and interventional radiology this is related to significant overexposures of individual patients with the risk of deterministic effects (individual approach) or a group of patients with the risk of stochastic effects (collective approach). Radiation protection and patient safety require all efforts to prevent such incidents. If incidents occur, the first step should be in any case a local work-up involving the practitioner, staff members, medical physics experts, and/or radiation protection officer. The referrer and patient (and, if relevant, their carers) should be informed about the incident. The interpretation of incidents may include near misses, where an error was detected before performing the procedure .
The EU-BSS require that a report be made to national authorities if an overexposure is classified as significant. The problem is that the EU-BSS leaves the definition of “significant” (Article 63) to the implementing authorities of EU member states. This leads to confusion and a very heterogeneous approach across Europe. From a practical point of view, one would like to have reporting criteria based on physical quantities and units and not semantic criteria like “significant”. Instead, DRLs could be used for this purpose. They should not be applied to individual patients and should not be used as dose limits. DRLs are important tools that could be used to identify procedures with too-high exposures, that should be investigated. DRLs are based on physical parameters including: dose area product (KAP), CT dose index (CTDIvol), dose length product (DLP), entrance air kerma (Ka,r), or average glandular dose (AGD) and could be used with factors of relative overexposures or with derived absolute dose values .
In May 2018, a questionnaire on implementation of EU-BSS Art. 63 was sent to all European institutional national member societies of the ESR, including the 28 EU member states. The results revealed the difficulties in finding a harmonised approach, with about 50% of countries having no definition for what “significant” means and no physical reporting criteria. As a result, the ESR plans to publish a white paper giving support to the national societies regarding how to find practical solutions with their regulators. The EFRS has also issued a communication, to all of its national societies and educational institutions, offering guidance on aspects of the EU-BSS .
Agent type and respective safety issues
NO at clinical doses
Metformin and lactic acidosis
Nephrogenic systemic fibrosis
Brain deposition and other organs
Hypersensitivity reactions – duties of radiographer, radiologist or nurse, depending on circumstances and local practices
Be prepared (training provided, resuscitation trolley available, emergency phone numbers posted);
Interrogate the patient for previous reactions, grade, and symptoms
Adequately treat the symptoms based on the Ring and Messmer classification (Table 2)
Symptoms based on the Ring and Messmer classification
Cutaneous Mucosa: erythema, urticaria, angioedema
Moderate multivisceral: cutaneous ± hypotension ± tachycardia ± cough, dyspnea ± digestive signs
Severe mono- or multivisceral signs: cardiovascular collapse, tachycardia or bradycardia ± arrythmia ± bronchospasm ± digestive signs
It is worth noting that not all reports from patients of previous allergic reactions represent true hypersensitivity. It is important to make reasonable efforts to differentiate patients with true histories of previous reactions from those who have had previous incidents due to other factors, but believed by the patient to represent “allergy”. This differentiation is not always easy, but we should remember that failing to perform an indicated contrast-enhanced study (if true hypersensitivity is not really an issue) may indirectly diminish patient safety.
Nephrotoxicity of iodinated contrast media
Risk factors include: Age > 70 years, reduced renal function (eGFR < 30 ml/min for intra-venous, 45 for intra-arterial injection), large doses, and multiple contrast injections within 48–72 h. Measurement of renal function should be performed prior to injection in at-risk patients. Hydration of high-risk patients is advisable (for hydration protocols see ESUR guidelines) [11–13].
In patients with eGFR > 30 ml/min, metformin administration may be continued normally. If eGFR < 30 ml/min or iodinated contrast is to be given by an intra-arterial route, metformin should be stopped from the time of injection and resumed 48 h later if renal function has not changed.
Nephrogenic systemic fibrosis
In the past, nephrogenic systemic fibrosis was mainly seen in patients with severe renal insufficiency or on dialysis after injection of linear Gadolinium chelates (high-risk group); most of these agents have been recently withdrawn from the market in Europe.
Due to the detection of regions of signal hyperintensity in the deep brain nuclei after multiple injections of Gadolinium chelates, the European Medicines Agency decided in 2018 to withdraw linear Gadolinium chelates from the market, except for liver specific agents . Evaluation of the risk / benefit ratio of multiple injections should be weighted, especially in children or patients with chronic diseases. Further research is required in this area, and European subspecialty imaging societies are encouraged to publish guidelines for the adequate imaging protocols of such diseases (e.g. Multiple Sclerosis, Crohn’s disease).
Iodinated contrast induced thyrotoxicosis
Administration of iodinated contrast constitutes an iodine load to the thyroid representing many multiples of the daily recommended iodine intake; this can result in hypersecretion of thyroid hormones, with development of thyrotoxicosis in subsequent weeks occurring rarely, particularly in patients with pre-existing Grave’s disease or multinodular goitre. Where possible, patients with existing thyrotoxicosis should not receive iodinated contrast unless a strong indication for its use is present [15, 16].
The dose of any type of contrast used should be based on the contrast agent concentration, patient weight, and injection protocols, with a view to balancing optimisation of the quality of the information obtained with minimising the risk of adverse effects.
For intravenous injection during CT, an IV cannula should be placed with a Gauge size adapted to the injection flow rate required (mainly 18G). Faster flow rates (and therefore larger cannulae) are generally needed for studies dependent on high-concentration arterial opacification including CT pulmonary arteriography. In the event of inadvertent soft-tissue extravasation of contrast, severe injury is extremely rare, and may include skin ulceration, necrosis or compartment syndrome.
Documenting the extravasation with an X-ray or CT
Treating the patient: limb elevation, ice packs, monitoring
Reporting in the medical record and informing the referring physician .
Safe patient handling is defined as any activity requiring force to push, pull, lift, lower, transfer or in some way move or support a person or body part . Patient handling issues have the potential to generate serious problems for both patients and healthcare professionals (HCPs) . The first national policy on Safe Patient Handling was introduced into the United Kingdom in 1992 . Since then, similar pieces of legislation and guidelines have been introduced in many countries around the world . Professional bodies and societies, such as the ESR and EFRS, have also produced reports and guidance on aspects of patient safety [21, 22], but less so on safe patient handling practices. All HCPs have a role in preventing injury and in correct patient handling. Within radiology, this task more commonly falls on radiologists, radiographers, nurses, and support staff. In order to promote optimum patient and staff safety, the following roles and responsibilities should be considered with regards to patient handling.
Understand their own roles and responsibilities in relation to safe patient handling;
Undertake relevant training and updates;
Have awareness of local patient handling policies;
Recognise patient handling related risks;
Commit to introducing precautions to reduce patient handling risks;
Be able to correctly use and maintain patient handling equipment;
Follow appropriate systems of work;
Engage in a multidisciplinary approach to safe patient handling;
Take reasonable care to ensure that their actions do not put themselves or others at risk;
Commit to reporting patient handling incidents;
Commit to reviewing incidents and improving patient handling practices;
Respect the personal wishes of the patient regarding mobility wherever possible;
Support patient independence and autonomy.
The ESR Patient Advisory Group (PAG) has stated that all care and communication with and about people must be effective, timely, inclusive, and personalised: ‘nothing about me, without me’ . It is a legal requirement that any patient receiving a medical examination involving ionising radiation is informed in a timely and clear manner of the expected diagnostic or therapeutic benefits of the radiological procedure, as well as the radiation risks.
Seeking patient consent prior to undertaking an examination or treatment is a fundamental ethical and legal requirement [24, 25]. Patients become part of the decision-making process about their care by being provided with clear information to enable their participation and being involved in the actual decisions [24–27]. Provision of timely and appropriate information is also a common courtesy and establishes an appropriate relationship of trust between the patient and the referring doctor and radiology department personnel . To achieve this, the needs and values of the patients and carers must be central to service delivery within each clinical imaging service .
The patient has the right information to make a decision;
The information has been presented in a way that the patient can understand;
The patient has shared in the process of decision making and agrees with the outcome .
The patient must be in possession of all the information to make the decision and to be able to do this voluntarily without pressure from external sources.
It is important that patients have access to the right support to enable them to make their decision. A HCP has the responsibility to identify when a patient may require support and for someone to ‘speak on their behalf’.
The process of consent should be flexible to suit the patient’s needs; it is not a rigid process and time must be allowed for patients to assimilate information prior to being asked to make a decision. The process must be personalised to meet the individual’s needs.
Every person has the right to make a decision and it must be assumed that they have the capacity to do so. Where decisions need to be taken on behalf of an individual this must be done with the interests of the individual being at the centre. It is essential that each professional undertaking the process of obtaining consent is up to date with the national laws in their country and hospital processes with regard to this.
Communication of risk and benefit
The involved healthcare professionals must inform the individual (or, where appropriate, their carer) of the risks and benefits of the examination and in doing so explain the risks of not having the imaging examination, in a form understandable to the patient . Where possible, patients should be given sufficient time to consider this information fully, before proceeding. Practitioners must respect the patient’s wishes. Many radiological examinations carry a risk. The risks related to radiation exposure and other risks depending upon the examination, for example invasive techniques, should be explained in an understandable form for the patient (e.g. comparative information about the proposed investigation radiation dose in relation to background radiation compared to when flying in an aeroplane). Written information is valuable and can be used by the patient in discussion with their families and carers prior to consenting to the process.
Practicalities of the consent process
Professionals must follow their hospital and national laws in relation to the practicalities of the consent process. Consent can take verbal and written forms and must take account of paperless systems. Details of the consent process must be fully recorded. Obtaining consent for procedures is a shared responsibility, involving the referring clinician and radiology department personnel; the balance of responsibilities will depend on specific circumstances and working arrangements.
It is important to understand the law in relation to children and consent as this varies across Europe. For example, in the UK, if a child is competent to give consent, the practitioner should take consent from the child. The legal position on competence is different for children under 16 years of age than for children over 16 years.
Use of chaperones
For intimate examinations it is important to consider the role of chaperones and patients should be able to request a chaperone to support them during the examination. Patients should be made aware that a chaperone can be provided.
Consent for research
Patients must receive information about the proposed trial and any risks/benefits which may be anticipated. Written information must be provided. Trials involving patients must have ethical approval, as required within the relevant country. Consent in writing is required. Participation in a trial is voluntary and this should be explained clearly to the patient.
Consent for education and training
Explicit verbal consent must be sought if students/trainees are present for all or part of the imaging examination. Patients must be informed about the number of students/trainees and the role they will play. Patients have the right to refuse care from students/trainees.
There are specific exceptions, where it may not be possible to obtain explicit consent, such as some aspects of emergency care where imaging is required in order to help save the patient’s life or to prevent deterioration of life. If decisions are made in this context, this information should be recorded formally.
In summary, the ESR has published a succinct overview ‘Delivering patient-centred care in Clinical Radiology’ which offers a package of interventions to support delivery of patient-centred care in radiology . Consent to treatment is the principle that a patient must give permission before they receive any type of medical treatment, test or examination. The principle of consent is an important part of medical ethics and international human rights law. For consent to be valid, it must be voluntary and informed, and the person consenting must have the capacity to make the decision. Consent can be given verbally or in writing .
The behaviour of ferromagnetic objects when exposed to a strong magnetic field. Forces may act on a ferromagnetic implant causing it to move which could lead to injury and, potentially, death. External ferromagnetic objects may also be influenced by strong magnetic fields and become airborne and move rapidly towards the iscocentre of the magnet. Again this ‘missile’ or ‘projectile’ effect could lead to injury or death.
Static, or gradient, magnetic fields may also impact on medical devices, implanted or external, and cause these to dysfunction.
Radiofrequency (RF) related risks include tissue heating due to RF energy deposition which is measured as the specific absorption rate (SAR). This becomes more pronounced with increasing field strengths due to the increased frequency of the RF pulses. RF energy can also be deposited in skin patches, tattoos, cables, and wires, causing them to heat up and, potentially, burn the patient.
Acoustic noise, associated with the rapidly switching gradient coils, also poses a risk to patients which are avoidable through the appropriate use of hearing protection and noise-reduction technologies.
All professionals involved in MRI i.e. referring clinicians, radiographers, radiologists, and support staff must be aware of these considerations, and appropriate safety procedures must be in place. With over 43 million MRI scans performed across the EU in 2015, together with a 40% growth in MR activity between 2010 and 2015 , the need to ensure best practice for patient safety in MRI is vital.
National and international guidance documents related to MR safety are widely available. In 2001, an American College of Radiology (ACR) expert panel produced the ACR MR Safe Practice Guidelines. First published in 2002, the latest version, the ACR Guidance Document on MR Safe Practices: 2013 applies not only to diagnostic settings but also to patient, research subject, and healthcare personnel safety for all MRI settings, including those designed for clinical diagnostic imaging, research, interventional, and intraoperative applications . Safety considerations are discussed under the headings related to: establishing, implementing, and maintaining current MR safety policies and procedures; static magnetic field issues; safety screening; staffing; pregnancy; paediatrics; time varying gradient magnetic field; time varying radiofrequency field; cryogen-related issues; claustrophobia, anxiety, sedation, and anaesthesia; contrast agents; and implants. Similarly, the International Society of Magnetic Resonance in Medicine (ISMRM) have published guidance related to the safe use of MRI for research purposes where they discuss: roles and responsibilities; minimum qualification requirements; operating modes; and considerations for the patient/research subject .
A recent consensus document involving eight organisations, including the ESR and the EFRS, made recommendations about clearly defining the roles and responsibilities of those involved in the management of MR safety . They describe the MR Medical Director (MRMD) / MR Research Director (MRRD), the MR Safety Officer (MRSO), and the MR Safety Expert (MRSE); along with the importance of appropriate education and training for such roles.
Perform hand hygiene, using the five moments  (before touching a patient, before clean/aseptic procedures, after body fluid exposure/risk, after touching a patient, and after touching patient surroundings) and by correctly using an alcohol-based solution for disinfection or by washing hands in an appropriate way;
Use personal protective equipment whenever an exposure to infectious material might occur;
Respect and instruct patients on how to sneeze and cough appropriately and in appropriate use of masks in infectious disease;
Be aware of and ensure staff awareness of issues relating to patients in isolation, namely the respiratory and the contact types of isolation, or both;
Ensure the appropriate cleanliness of materials (disinfection and sterilisation) and the environment surrounding the patient;
Handle textiles and laundry garments carefully and dispose of them according to the healthcare facility policies;
Ensure safe injection procedures, namely the rule “one needle, one syringe and one use”;
Ensure sharps safety.
Contact precaution to be used when contact transmission might occur. This could be achieved by isolation of the patient, use of personal protective equipment, limiting transport and movement, use of disposable equipment when possible, and ensuring cleaning of surfaces;
Droplet precaution to be used in case of infectious agents that might be transmitted by respiratory droplets, when a patient is sneezing, coughing, or talking. This could be achieved by continuous use of patient facemasks, ensuring appropriate patient placement, use of personal protective equipment and limiting patient movement and transport;
Airborne precautions when infectious microorganisms have an airborne route, such as tuberculosis, measles, or chickenpox. This could be achieved by respecting droplet precaution plus the restriction of susceptible healthcare professionals entering the room and by immunisation of those susceptible persons.
The radiology department has usually been considered a low risk environment for infections associated with healthcare (nosocomial infections), but the potential for transmission of infectious pathogens to both patients and healthcare professionals exists . Radiology departments have a steady stream of a wide variety of patients each day. Patients referred from ambulatory care and emergency departments often mix with inpatients. All of these patients can contaminate the environment of the radiology department with pathogens. Given the large number of patients with confirmed infections and those undiagnosed as infected that go to the radiology department, and the potential to contaminate both objects and the air with pathogens, surface cleaning must be done between all patients, with more rigorous cleaning protocols at periodic intervals. The radiology department must also maintain good communication with the clinical areas referring patients for radiologic procedures, in order to properly identify those patients that need extra precautions .
In the specific case of the radiology department, chin supports and chest racks used to obtain chest radiographs, anatomical markers, fluoroscopy equipment, X-ray tubes, and X-ray receivers may all become contaminated with multiple microorganisms from patients, with the potential for spread to other patients, if proper measures are not taken .
Ultrasound infection prevention
Most non-invasive radiological procedures (e.g. radiography and CT) do not involve direct contact of equipment with potentially-infected surfaces, given the usual presence of intervening clothing and/or dressings. Ultrasound is an exception to this. Because adequate ultrasound imaging requires good transducer-to-skin contact (or endocavitary or other intracorporeal positioning of a transducer), the potential exists for transmission of infection between patients via transducers [39, 40]. Ultrasound gel is another potential means for infection transmission, especially if multi-use gel dispensers are utilised [39, 40]. It has been shown that bacterial contamination of ultrasound transducers is significantly higher than that of bus poles and public toilet seats [40, 41].
Survival times for some viruses, bacteria and fungi on dry inert surfaces (including transducer surfaces) can be up to several months, or even longer if the surface is contaminated with co-existent organic material . A recent survey of European practices regarding ultrasound probe cleaning and decontamination, probe cover and sterile gel use found wide variation among respondents, with no uniformity of approach .
Accordingly, the Ultrasound Working Group of ESR published a set of recommendations in 2017 aimed at providing ultrasound users with a set of standards for ultrasound transducer decontamination, use of transducer covers and gel . These are aimed at minimising the potential risks to patients from ultrasound studies and procedures. The recommendations cover equipment and gel contact with intact surface skin, mucous membranes, bodily fluids (including interventional procedures), and infected/broken skin and wounds, including protocols for cleaning and disinfection of transducers after every examination in each circumstance.
Radiologists and radiographers have been at the forefront of adopting digital medical imaging and electronic health information. Radiologic images, lab test results, medications and other clinical information are now typically stored and viewed on computers. The responsibility that physicians have to protect their patients from harm extends to protecting patient information, privacy, and confidentiality.
To provide high quality medical care to patients, radiologists and radiographers use information from the Hospital Information System (HIS), Radiology Information System (RIS), and Picture Archiving and Communication System (PACS). The ESR endorses the view that the radiologist who interprets images of a patient for diagnostic purposes or who performs interventional image-based procedures should have full access privileges as a consultant to all medical data including all previous images, as well as clinical, chemical, and biological analyses .
Work with this electronic medical information has to be performed within a safe and secure environment. It is the responsibility of all health care professionals in a radiology department to ensure that electronic medical information is properly protected. Therefore, radiology organisations have to make sure that policies and standards related to the protection of medical information are in place. Access to databases such as Electronic Patient Record (EPR) and PACS is currently mainly regulated by local rules, created by the hospital administration, or by a national authority.
Obtain explicit consent from the data subject (the patient) prior to processing or communicating his or her data, unless in situations where derogations exist;
Apply appropriate technical and organisational safeguards such as anonymisation, pseudonymisation, and encryption for data use in the context of public health projects, individual research projects, or imaging biobanks for ‘big data’ analysis;
Provide access for the data subject to his/her personal medical records containing information such as diagnoses, examination results, assessments by treating physicians, and any treatment or interventions provided.
Artificial Intelligence (AI) and Deep Learning (DL) technologies are growing in importance in the radiology sphere. These involve innovative ways of using imaging (and other) data to enhance the diagnostic process, and may have profound impacts on the practice of radiology in the future. AI and DL in radiology require training of algorithms on large annotated datasets, which raises further issues of data protection and consent that will have to be addressed comprehensively . Although anonymised data sets are not subject to the GDPR, it is difficult to define exactly the conditions which should be fulfilled in order to reliably anonymise digital image data for research and development purposes. For example, ethical issues include the potential for reversal of de-identification or anonymisation of patient data through data-linking DICOM tags or face-recognition software, the need to ensure equality of access and absence of bias in algorithms, and the lack of clarity about intellectual property rights that could arise from use of patient data to develop and market potentially highly-profitable AI products . Many radiology societies, including the ESR, have published or are developing position papers explaining these novel developments and the associated issues to the radiology and patient communities.
In most developed countries, the range of tasks involved in the performance and interpretation of imaging studies are performed by respectively, radiographers and radiologists (usually collaboratively, with each profession responsible for specific elements of the process) who have completed formal training programmes conforming to national and international standards, following approved curricula, and requiring accumulation of defined minimum amounts of experience in their profession and specialty. This is entirely appropriate, and ensures that patients have access to safe, optimised services.
Radiation protection (see earlier section): Dose optimisation and radiation protection are key components of the training undergone by qualified radiographers and radiologists.
Appropriateness of investigations: Properly-trained and -qualified radiologists are best-placed to judge whether a requested study or procedure represents the best method of obtaining the information required or achieving the result desired. In many instances, alternative studies may be safer and more helpful, or studies requested may not be appropriate to answer the clinical question. Untrained or incompletely-trained individuals lack the breadth of knowledge and understanding required to always choose the wisest and safest method of investigation, and may be more likely to follow pathways of investigation that fit with their particular interests, knowledge or preconceptions (“if you only have a hammer, everything looks like a nail”).
Clinical Decision Support (CDS): CDS software packages have been developed by a number of major radiology societies, including the ESR, with the intention of providing referring clinicians (and radiology professionals) with guidance regarding appropriate radiological investigative pathways . The use of CDS depends crucially on the specific knowledge and experience of trained professional radiographers and radiologists.
Subspecialisation: this has particular application in interpretation of imaging studies. Access to subspecialty-trained radiologists ensures optimal information retrieval from investigations. This cannot be guaranteed when interpretation is performed by medical or non-medical individuals who lack the training and experience of specialists and subspecialists.
In many instances, non-radiologist interpretation of images is performed by other medical specialists, focusing on their particular interest or question. This is understandable, but not optimal, and this focused interpretation runs the risk (among others) of not identifying or recognising unexpected abnormalities outside the area of their particular focus. As a minimum standard, if such non-specialist interpretation is performed, a formal report should be generated and recorded accessibly by the interpreter , available afterwards for review.
In the context of the growing emphasis on Value-Based Healthcare models, substantial value is provided to the patient by having their imaging and interventional radiological procedures performed and interpreted by trained professionals , and there should be no room in any developed society for uncontrolled, unregulated, “amateur” performance and interpretation of studies.
Interventional radiology (IR) procedures are subject to all the risks to patient safety that apply to any radiological procedure, and all appropriate precautions taken in the setting of other modalities must also be observed in IR. IR procedures also carry additional risks to patients, relating to potential complications or negative outcomes of the relevant procedures, and the possibility of injury or harm resulting from insufficient care being applied before and during procedures. Drug use during IR procedures may include (among others) sedatives, vaso-active substances, analgesics, and antibiotics; each of these can have specific safety issues.
Surgical checklists have become commonplace tools to reduce morbidity and mortality in surgery. This concept has more recently been applied to IR [49, 50], with the development of pre-procedural, sign-in and sign-out templates for IR procedures, designed to ensure that the correct procedure is being performed on the correct patient, that all relevant information is available, that all appropriate safety steps are observed, and that clear post-procedural planning is put in place and communicated.
Aside from examination or procedure-specific paediatric considerations, child protection is an extremely important issue in patient safety. According to the European Commission  and UNICEF , comprehensive national child protection systems must be in place which should apply to all aspects of a child’s life. There is an onus on all health professionals in medical imaging departments to respect and protect the rights of the child. In many jurisdictions, radiologists and radiographers will also have legal responsibilities related to the reporting of suspected physical abuse of children/suspected non-accidental injury. While some children may be referred for imaging examinations where there is a pre-existing suspicion of abuse, other cases may only become apparent when radiologists, and radiographers in particular, are interacting with children and their parents or guardians.
Attention must also be given to other vulnerable persons which may include: the elderly, those with memory complaints, intellectual disabilities, or mental health issues. In any such cases, appropriate systems to facilitate communication and consent should be in place. These systems must include the requirements for responsible adults, guardians, or chaperones.
Communication between patients and radiology staff
Patients, during an occurrence of disease or phase of care, can come in contact with a broad variety of different healthcare professionals, each an important link of the healthcare chain.
Use of verbal and non-verbal communication to let the patient feel at ease;
Asking the patient their opinions and thoughts to allow shared management decisions;
Recognising and acknowledging their emotions and fears and allowing them time to express them;
Avoiding (where possible) the use of complicated medical and technical terminology and checking understanding all the way through the explanation;
Allowing the patient or relative (or the legal guardian) time to ask questions and offering follow-up if needed;
Respecting the need for autonomy of the patient, even if their viewpoint may be different from the professional’s understanding.
It is important to make sure that the correct patient is about to undergo a given radiologic procedure or examination. Examining the wrong patient could lead to unnecessary exposure to ionising radiation, to misdiagnosis of a severe pathology, or even to an unnecessary intervention.
ASK the patient to state (and where possible/practical spell) their full name and date of birth;
ALWAYS check this against the patient identification band, which must say exactly the same;
NEVER ask the patient “are you Mr Jones?”; the patient may have misheard and mistakenly agree;
NEVER assume the patient is in the right bed or that the name tag above the bed is correct.
Correct patient is present;
Correct examination is about to be performed;
Clinical history corresponds to the requested examination;
Correct side or site is being examined;
Right or left side markers, acquisition of the topogram, the ultrasound transducer, etc. are being used correctly and according to the side/extremity.
Communication among professionals (radiographers, radiologists, referrers/including handover)
Critical information must be accurately communicated between radiology department staff and staff from other departments or, within the radiology department, between professionals. For example, proper identification of those patients that need extra precautions (protective or contact isolation), are at a higher risk, or cannot wait for their turn in the waiting room depends on these communications channels. In a hospital, patients often move between areas of diagnosis, treatment, and care on a constant basis and may even come across several shifts of staff each day, which introduces an additional safety risk to the patient each time change happens . In all instances, the information communicated about a patient and the handover of a patient or a shift must achieve a balance between comprehensiveness and efficiency .
Situation – What is going on with the patient or the situation? For an emergency patient, ask what the presenting complaint is. For an inpatient, ask what the current concern is;
Background – What is the clinical background or context? What is the relevant past medical story or what has happened during this inpatient admission?
Assessment – What do I think the problem is? Ask for the current set of observations and relevant clinical findings;
Recommendation – What would I do to correct it? What needs to be done now? Are there any outstanding jobs? How urgent is it?
Relevant items that will be items that will be Remembered (focus on sickest patients first; daily progress and direction on what to do);
Give directions with Rationale avoiding ambiguity;
Check for Receiver understanding, encouraging questions.
Listen actively (being focused on receiving information, limiting interruptions during the handoff, and taking notes if needed);
Ask questions (to ensure the understanding of what is being said);
Use a system (to keep track of to-do items that require action);
Read back (directions to ensure you are on the same page).
Assign enough time for communicating important information and for staff to ask and respond to questions without interruptions wherever possible (repeat-back and read-back steps should be included);
Provide information regarding status, medications, treatment plans, advance directives, or any significant status changes;
Limit the exchange of information to that which is necessary to provide safe care to the patient.
“Well, nobody’s perfect” .
Errors are part of all human activity. Every effort should be made to avoid error, but when it happens, it should be acknowledged (and shared with the patient if that would benefit patient care). A no-blame culture should be encouraged within departments, such that errors are used as learning opportunities for all, not as tools to isolate or demean individuals. One possible mechanism for such learning is through open review of errors by all relevant department members, to identify possible causes and methods of eliminating those causes in the future (e.g. learning from discrepancy meetings) [61, 62].
Continuing professional development (CPD). We work in rapidly-changing disciplines; this brings both excitement and challenge to our work. We cannot assume that it is appropriate to practise for a lifetime on the basis of what we knew when we completed formal training. Continuous education is necessary for us to serve our patients properly, adapting what we do to new technologies, developments, and changing circumstances. All radiographers and radiologists should incorporate a culture of continuous learning into their practice, and should be supported in doing so by their professional and national societies (by provision of timely and up-to-date educational opportunities) and by their employers (by provision of protected time and resources). Personal learning and intra-departmental CPD should be encouraged, and, ideally, provided for in work schedules .
Peer review. Many opportunities for peer review of our work are already part of daily activity in radiology departments: review of prior study reports when reporting a new study, review of the quality of imaging when reporting a study, review of multiple studies and change over time when conducting multi-disciplinary team conferences, review of studies from outside institutions imported for specialist or subspecialist opinions, etc. All of these offer opportunities for us to assess the quality of work of our peers, and of ourselves. These are all valuable opportunities for learning, and for two-way communication to optimise the work output of the person whose work is being reviewed and of the reviewer. As with errors and discrepancies (item 1), this should always take place in a blame-free environment focused only on quality improvement for the future .
Clinical Audit. European Union directives have mandated the performance of clinical audit in radiology departments since 1997. This requirement is emphasised in the current EU-BSS [3, 65]. Clinical audit is a simple yet powerful tool for evaluation of current practices, and for providing guidance to change and improve those practices when appropriate. Essentially, clinical audit involves measuring what we do against a standard, and then changing what we do to allow us meet that standard when appropriate. The ESR has developed a booklet explaining clinical audit and providing a series of templates for performance of audit to assist departments beginning this activity [22, 66].
External review. In some countries, external reviews of radiology departments will be a legal requirement, assessing their activities against standards. While such inspections may be stressful for departments and the professionals who work within them, they can also provide an impetus to optimise performance and safety standards.
Risk management. Whatever the legislative arrangements in individual countries, the process of managing and minimising risk within radiology departments should be primarily the responsibility of the professionals working within the department (assuming adequate resources are made available). Group responsibility and peer evaluation are fundamental to effective risk management; the members of the radiological team should be the principal actors in maintaining quality within their own organisations. Clinical audit is an essential component of this activity. Continuing quality improvement activities are a major component of promoting competence within radiological teams.
This is not intended to be an exhaustive list of quality improvement activities in which professionals in radiology can engage; rather, it is intended to provide examples of areas where a continuous culture of attention to quality improvement can be incorporated into normal professional work. The focus of quality improvement activities will vary from country to country and from department to department. Whatever the local needs and indicators, each radiology department should devote regular attention to assessing the quality of its work, and, where possible, seeking to continually improve it.
Burnout is a state of mental weariness which has been initially defined as a sustained response to chronic emotional and interpersonal stressors within the workplace . Reports also describe burnout as the progressive loss of energy and enthusiasm . Burnout has been shown to lead to decreases in productivity and effectiveness, reduced commitment to the job, and negative effects on home life . Causes of burnout are multifactorial but having too many bureaucratic tasks, too many work hours, and increasing levels of computerisation have been linked. Within the radiology literature, reports regarding burnout within clinical practice are increasing in frequency [67, 70, 71].
Similar reports exist with regard to the issue of fatigue. Waite et al. , in 2017 compiled a review on the influence of fatigue within radiology. In this paper, fatigue was similarly defined as a weariness and depletion of energy that can manifest physically and cognitively. Both burnout and fatigue have huge implications in terms of their effects on patients, colleagues, and the individuals concerned. Visual and mental fatigue among radiology professionals have been shown to occur towards the end of long work-days, and to have negative effects on lesion detection and decision-making .
Have adequate staffing
Reduce prolonged stress
Restore a sense of control
Restore lifestyle balance
Reduce out-of-hours obligations
Improve staff efficiency
Develop reasonable expectations and goals
Provide professional help
Promote action by the Radiology Community
Encourage the Radiology Community (radiologists, radiographers, and support staff) to have greater awareness of burnout/fatigue and implement practices to mitigate the problem moving forward. Professional societies, such as EFRS and ESR, should continue to raise awareness and propose solutions to burnout and fatigue.
The Statutes of the ESR  and Constitution of the EFRS  clearly highlight the importance placed on education and training by both organisations. There has been much discussion on the potential for greater focus on patient safety, including within undergraduate curricula, to effect change [76–80]. Embedding patient safety in curricula can help us move toward a patient safety culture and a system of safety but this requires careful consideration of the learning system . Educational activity related to patient safety must be transparent and consistent within curricula, it must be a core theme throughout, and it must be regularly reviewed and enhanced; thus, requiring a holistic approach.
To aid education and training providers, the ESR has published three European Training Curricula for Radiology: Curriculum for Undergraduate Radiological Education , European Training Curriculum for Radiology (Level I and II) , and European Training Curriculum for Subspecialisation in Radiology (Level III) . All three clearly indicate the importance of patient safety with defined learning outcomes and topics. Similarly, the EFRS has published their European Qualifications Framework (EQF) Level 6 (Bachelors) Benchmarking Document for Radiographers  and EQF Level 7 (Masters) Benchmarking Document  which also highlight the intricate nature of patient safety-related content. Additionally, the ESR led the EC-MEDRAPET project (also involving the EFRS) that established European guidelines on radiation protection education and training of medical professionals in the EU . The ESR and EFRS curricula and benchmarking publications provide a framework to facilitate the mapping of activity, yet despite the growing focus on patient safety, there is a paucity of published reports exploring the inclusion of patient safety topics within radiology and radiography curricula. The EFRS thus undertook a project to evaluate and report on the inclusion, and assessment, of patient safety-related topics within undergraduate radiography curricula across Europe . This study, which surveyed 33 educational institutions across Europe, revealed that while most patient safety topics appeared to be taught across most programmes, several important topics were only taught at an introductory level in some centres. Variability was also apparent in terms of the teaching and assessment methods used. While the findings of this study were reassuring, opportunities to further advance patient safety education and training within curricula were identified, and both the ESR and the EFRS have a key role to play through continued promotion.
A simplistic view of patient safety in radiology is that the key risk relates to inappropriate radiation exposure. While preventing this is a central part of the responsibility of radiographers and radiologists, there is a much wider range of patient safety aspects of the work of radiology professionals. In this paper, we have not attempted to provide a comprehensive list of all safety issues. Our focus, rather, has been to highlight certain broad headings to provide a resource for those radiographers and radiologists who wish to find relevant guidance and references. In addition, the ESR and EFRS seek to keep safety considerations central to future educational, resourcing and development planning in patient care, as it applies to our specialties and our patients. This joint paper, reflecting the concerns and understanding of the European radiographer and radiologist communities, is a key component of explaining and highlighting the range and complexities of our duties and responsibilities to ensure the best possible outcomes for our patients. Local practices will determine to some extent how these safety standards are implemented in each country, but the fundamentals of our work are the same everywhere: our patients are central to our work, and their safety must always be paramount.
This paper was prepared by members of the ESR – EFRS patient safety joint paper working group led by Adrian Brady (Chair of the ESR Quality, Safety & Standards Committee 2017-present) and Jonathan McNulty (EFRS President and Chair of the EFRS Executive Board 2017-present). The ESR working group members, and contributors to this paper, were: Adrian Brady, Reinhard Loose, Olivier Clément, Michael Fuchsjäger, Christoph Becker, and Guy Frija. The EFRS working group members, and contributors to this paper, were: Jonathan McNulty, Andrew England, Charlotte Beardmore, and Kevin Azevedo. Particular thanks are also due to Monika Hierath of the ESR office, who made many invaluable contributions. The paper was also reviewed by members of the ESR-PAG. It was approved by the ESR Executive Council and the EFRS Executive Board on 15 November 2018.
© 2019 The Authors. Published jointly by Elsevier and Springer Nature on behalf of the European Society of Radiology (ESR) and the European Federation of Radiographer Societies (EFRS). This article is published under the Creative Commons CC-BY license.
The authors declare that this article has not received funding.
Availability of data and materials
All data generated or analysed during this study are included in this published article.
This is a joint statement of the European Society of Radiology (ESR) and the European Federation of Radiographer Societies (EFRS), published simultaneously in Insights into Imaging [DOI:10.1186/s13244-019-0721-y] and Radiography (DOI: 10.1016/j.radi.2019.01.009).
All authors read and approved the final manuscript.
Ethics approval and consent to participate
Consent for publication
The authors declare that they have no competing interests.
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
Published by Elsevier Ltd. and Springer-Verlag GmbH (part of Springer Nature Ltd.) on behalf of The Society of Radiographers and the European Society of Radiology (ESR). This article is published under the Creative Commons Attribution 4.0 International License.
- International Commission on Radiological Protection (2007) The 2007 recommendations of the International commission on radiological protection. ICRP Publication 103 Ann. ICRP 37 (2–4). Available via http://www.icrp.org/publication.asp?id=ICRP%20Publication%20103 Last Accessed 8 Feb 2019
- European Society of Radiology (ESR) (2018) ESR EuroSafe Imaging. European Society of Radiology, Vienna. http://www.eurosafeimaging.org/ Last Accessed 8 Feb 2019
- Council of the European Union (2013) Council Directive 2013/59/EURATOM. Official Journal of the European Union, L 13/1Google Scholar
- Brambilla M, Damilakis J, Evans S et al (2017) Evaluation of national actions regarding the transposition of Council Directive 2013/59/Euratom’s requirements in the medical sector. EC Tender Contract No. ENER/16/NUCL/SI2.730592. Available via http://www.eurosafeimaging.org/wp/wp-content/uploads/2016/06/BSS-Transposition-in-the-Medical-Sector_Executive-Summary.pdf Last Accessed 8 Feb 2019
- European Society of Radiology (ESR) (2019) How to manage accidental and unintended exposure in radiology – an ESR White Paper. Insights Imaging 10:XX, doi: https://doi.org/10.1186/s13244-019-0691-0
- European Society of Radiology (ESR) (2018) ESR iGuide. European Society of Radiology, Vienna. http://www.myesr.org/esriguide Last Accessed 08 Feb 2019
- European Commission (2018) Radiation protection no. 185. European guidelines on diagnostic reference levels for paediatric imaging. Publications Office of the European Union, Luxembourg. Available via http://www.eurosafeimaging.org/wp/wp-content/uploads/2018/09/rp_185.pdf Last Accessed 08 Feb 2019
- European Society of Radiology, European Society of Paediatric Radiology, European Federation of Radiographer Societies, European Federation of Organizations for Medical Physics (2018) PiDRL – European Diagnostic Reference Levels for paediatric imaging. http://www.eurosafeimaging.org/pidrl Last Accessed 08 Feb 2019
- European Society of Radiology (ESR) (2018) EUCLID – European Study on Clinical Diagnostic reference levels for X-ray medical imaging. http://www.eurosafeimaging.org/euclid Last Accessed 08 Feb 2019
- Clement O, Dewachter P, Mouton-Faivre C et al (2018) Immediate hypersensitivity to contrast agents: the French 5-year CIRTACI study. EClinical Medicine 1:51–61View ArticleGoogle Scholar
- European Society of Urogenital Radiology (2018) ESUR guidelines on contrast agents, version 10. Available via http://www.esur-cm.org/index.php/en/ Last Accessed 08 Feb 2019
- van der Molen AJ, Reimer P, Dekkers IA et al (2018) Post-contrast acute kidney injury - Part 1: Definition, clinical features, incidence, role of contrast medium and risk factors: Recommendations for updated ESUR Contrast Medium Safety Committee guidelines. Eur Radiol 28:2845–2855View ArticleGoogle Scholar
- van der Molen AJ, Reimer P, Dekkers IA et al (2018) Post-contrast acute kidney injury. Part 2: risk stratification, role of hydration and other prophylactic measures, patients taking metformin and chronic dialysis patients: recommendations for updated ESUR Contrast Medium Safety Committee guidelines. Eur Radiol 28:2856–2869View ArticleGoogle Scholar
- European Medicine Agency (2017) EMA's final opinion confirms restrictions on use of linear gadolinium agents for body scans. European Medicine Agency, London. Available via https://www.ema.europa.eu/medicines/human/referrals/gadolinium-containing-contrast-agents Last Accessed 08 Feb 2019
- Dunne P, Kaimal N, MacDonald J, Syed AA (2013) Iodinated contrast-induced thyrotoxicosis. CMAJ 185(2):144–147View ArticleGoogle Scholar
- van der Molen AJ, Thomsen HS, Morcos SK et al (2004) Effect of iodinated contrast media on thyroid function in adults. Eur Radiol 14(5):902–907View ArticleGoogle Scholar
- Bellin MF, Jakobsen JA, Tomassin I et al (2002) Contrast medium extravasation injury: guidelines for prevention and management. Eur Radiol 12:2807–2812View ArticleGoogle Scholar
- International Organization for Standardization (2012) ISO/TR 12296:2012. Ergonomics - manual handing of people in the healthcare sector. International Organization for Standardization, Geneva. Available via https://www.iso.org/standard/51310.html Last Accessed 08 Feb 2019
- Mayeda-Letourneau J (2014) Safe patient handling and movement: a literature review. Rehabil Nurs 39:123–129View ArticleGoogle Scholar
- Health and Safety Executive (2016) Manual handling operations regulations. 4th Ed. Health and Safety Executive, UK. Available via http://www.hse.gov.uk/pUbns/priced/l23.pdf Last Accessed 08 Feb 2019
- England A, Azevedo KB, Bezzina P, Henner A, McNulty JP (2016) Patient safety in undergraduate radiography curricula: a European perspective. Radiography 22(1):S12–S19View ArticleGoogle Scholar
- European Society of Radiology (2017) ESR Clinical Audit booklet Esperanto. European Society of Radiology, Vienna. Available via https://www.myesr.org/sites/default/files/The%20ESR%20Clinical%20Audit%20booklet%20Esperanto.pdf Last Accessed 08 Feb 2019
- European Society of Radiology (2015) Delivering patient centred care in clinical radiology. European Society of Radiology, Vienna . Available via https://www.myesr.org/media/142
- The Society and College of Radiographers (2018) Obtaining consent: a clinical guideline for the diagnostic imaging and radiotherapy workforce. The Society and College of Radiographers, London. Available via https://www.sor.org/sites/default/files/document-versions/obtaining_consent_170118.pdf Last Accessed 08 Feb 2019
- European Federation of Radiographer Societies (2018) European Qualifications Framework (EQF) level 6 benchmarking document: radiographers. 2nd Edition. European Federation of Radiographer Societies, Utrecht. Available via https://www.efrs.eu/publications Last Accessed 08 Feb 2019
- The Royal College of Radiologists (2012) Standards for patient consent particular to radiology. 2nd Edition. The Royal College of Radiologists, London. Available via https://www.rcr.ac.uk/publication/standards-patient-consent-particular-radiology-second-edition Last Accessed 08 Feb 2019
- The Royal Australian and New Zealand College of Radiologists (2013) Medical imaging consent guidelines. The Royal Australian and New Zealand College of Radiologists. Available via https://www.ranzcr.com/search/medical-imaging-consent-guidelines Last Accessed 08 Feb 2019
- European Society of Radiology (ESR), American College of Radiology (ACR) (2016) Report of the 2015 global summit on radiological quality and safety. Insights Imaging 7(4):481–484View ArticleGoogle Scholar
- World Health Organisation (2016). Communicating radiation risks in Paediatric Imaging. https://www.who.int/ionizing_radiation/pub_meet/radiation-risks-paediatric-imaging/en/ Last Accessed 08 Feb 2019
- National Health Service (2016) Consent to treatment. National Health Service, UK. Available via National Health Service https://www.nhs.uk/conditions/consent-to-treatment/ Last Accessed 08 Feb 2019
- European Commission (2017) Eurostat Healthcare resource statistics - technical resources and medical technology. European Commission, Eurostat, Luxembourg. Available via https://ec.europa.eu/eurostat/statistics-explained/index.php/Healthcare_resource_statistics_-_technical_resources_and_medical_technology Last Accessed 08 Feb 2019
- Expert Panel on MR Safety, Kanal E, Barkovich AJ et al (2013) ACR guidance document on MR safe practices: 2013. J Magn Reson Imaging 37(3):501–530View ArticleGoogle Scholar
- Calamante F, Falukner WH Jr, Ittermann B et al (2015) MR System Operator: recommended minimum requirements for performing MRI in human subjects in a research setting. J Magn Reson Imaging 41(4):899–902View ArticleGoogle Scholar
- Calamante F, Ittermann B, Kanal E, Inter-Society Working Group on MR Safety, Norris D (2016) Recommended responsibilities for management of MR safety. J Magn Reson Imaging 44(5):1067–1069View ArticleGoogle Scholar
- Centers for Disease Control and Prevention (2017) Infection control basics. Centers for Disease Control and Prevention, Atlanta. Available via https://www.cdc.gov/infectioncontrol/basics/index.html Last Accessed 08 Feb 2019
- World Health Organization (2018) Clean Care is Safer Care. About SAVE LIVES: Clean your hands. World Health Organization, Geneva. Available via http://www.who.int/gpsc/5may/background/5moments/en/ Last Accessed 08 Feb 2019
- Reddy P, Liebovitz D, Chrisman H, Nemcek AA Jr, Noskin GA (2009) Infection control practices among interventional radiologists: results of an online survey. J Vasc Interv Radiol 20(8):1070–1074View ArticleGoogle Scholar
- Ribner B (2012) Healthcare-associated infections related to procedures performed in radiology. In: Mayhal CG (ed) Hospital epidemiology and infection control, 4th edn. Lippincott Williams & Wilkins, Philadelphia, pp 1018–1025Google Scholar
- Nyhsen CM, Humphreys H, Nicolau C, Mostbeck G, Claudon M (2016) Infection prevention and ultrasound probe decontamination practices in Europe: a survey of the European Society of Radiology. Insights Imaging 7(6):841–847View ArticleGoogle Scholar
- Nyhsen CM, Humphreys H, Koerner RJ et al (2017) Infection prevention and control in ultrasound – best practice recommendations from the European Society of Radiology Ultrasound Working Group. Insights Imaging 8(6):523–535View ArticleGoogle Scholar
- Sartoretti T, Sartoretti E, Bucher C et al (2017) Bacterial contamination of ultrasound probes in different radiological institutions before and after specific hygiene training; do we have a general hygienical problem? Eur Radiol 27(10):4181–4187View ArticleGoogle Scholar
- European Society of Radiology (ESR) (2017) The new EU general data protection regulation: what the radiologist should know. Insights Imaging 8(3):295–299View ArticleGoogle Scholar
- European Parliament and European Council (2016) Regulation (EU) 2016/679 of the European Parliament and of the Council of 27 April 2016 on the protection of natural persons with regard to the processing of personal data and on the free movement of such data, and repealing Directive 95/46/EC (General Data Protection Regulation). Official Journal of the European Union L 119/1Google Scholar
- Tang A, Tam R, Cadrin-Chênevert A et al (2018) Canadian Association of Radiologists white paper on artificial intelligence in radiology. Can Assoc Radiol J 69:120–135View ArticleGoogle Scholar
- Kohli M, Geis R (2018) Ethics, artificial intelligence and radiology. J Am Coll Radiol 15(9):1317–1319View ArticleGoogle Scholar
- European Society of Radiology (2019) Methodology for ESR iGuide content. Insights Imaging 10:32Google Scholar
- The Royal College of Radiologists (2011) Standards and recommendations for the reporting and interpretation of imaging investigations by non-radiologist medically qualified practitioners and teleradiologists. The Royal College of Radiologists, London. Available via https://www.rcr.ac.uk/sites/default/files/docs/radiology/pdf/BFCR%2811%292_Reporting.pdf Last Accessed 08 Feb 2019
- European Society of Radiology (ESR) (2017) ESR concept paper on value-based radiology. Insights Imaging 8(5):447–454View ArticleGoogle Scholar
- Lee MJ, Fanelli F, Haage P, Hausegger K, Van Lienden KP (2012) Patient safety in interventional radiology: A CIRSE IR checklist. Cardiovasc Intervent Radiol 35:244–246View ArticleGoogle Scholar
- Koetser IC, de Vries EN, van Delden OM, Smorenburg SM, Boermeester MA, van Lienden KP (2013) A checklist to improve patient safety in interventional radiology. Cardiovasc Intervent Radiol 36:312–319View ArticleGoogle Scholar
- European Commission (2015) 9th European Forum on the rights of the child. Coordination and cooperation in integrated child protection systems. Reflection paper. European Commission, Brussels. Available via https://ec.europa.eu/anti-trafficking/9th-european-forum-rights-child_en Last Accessed 08 Feb 2019
- Wulczyn F, Daro D, Fluke J, Feldman S, Glodek C, Lifanda K (2010) Adapting a systems approach to child protection: key concepts and considerations. UNICEF, New York. Available via https://www.unicef.org/protection/Conceptual_Clarity_Paper_Oct_2010(4).pdf Last Accessed 08 Feb 2019
- O’Neill P, Evans A, PAttinson T, Tolhurst-Cleaver M, Tolhurst-Cleaver S (2016) Macleod’s Clinical OSCEs. Churchil Livingstone, Edinburgh, pp 199–255Google Scholar
- Public Health and Clinical Systems (2011) Patient identification guideline. Public health and clinical systems, Adelaide. Available via http://proqualis.net/sites/proqualis.net/files/Guideline_Patient%2BIdentification.pdf Last Accessed 08 Feb 2019
- Australian Commission for Safety and Quality in Health Care (2010) Ensuring correct patient, correct site, correct procedure in General Radiology and Ultrasound. Australian Commission for Safety and Quality in Health Care, Sydney. Available via https://www.safetyandquality.gov.au/wp-content/uploads/2012/02/Protocol_GeneralRadiologyUltrasound.pdf Last Accessed 08 Feb 2019
- World Health Organization Collaborating Centre for Patient Safety Solutions (2007) Communication during patient hand-overs. Patient Saf Solut 1(3). Available via https://www.who.int/patientsafety/solutions/patientsafety/PS-Solution3.pdf Last Accessed 08 Feb 2019
- Curie J (2002) Improving the efficiency of patient handover. Emerg Nurse 10:24–27View ArticleGoogle Scholar
- Achrekar MS, Murthy V, Kanan S, Shetty R, Nair M, Khattry N (2016) Introduction of Situation, Background, Assessment, Recommendation into Nursing Practice: A Prospective Study. Asia Pac J Oncol Nurs 3(1):45–50View ArticleGoogle Scholar
- Arora V, Johnson J (2006) A model for building a standardized hand-off protocol. Jt Comm J Qual Patient Saf 32(11):646–655View ArticleGoogle Scholar
- Brown, Joe E., as Osgood Fielding lll, in “Some Like it Hot” (1959), dir. Billy Wilder, United ArtistsGoogle Scholar
- Brady AP (2017) Error and discrepancy in radiology: inevitable or avoidable? Insights Imaging 8:171–182View ArticleGoogle Scholar
- The Royal College of Radiologists (2014) Standards for learning from discrepancies meetings. The Royal College of Radiologists, London. Available via https://www.rcr.ac.uk/system/files/publication/field_publication_files/BFCR(14)11_LDMs.pdf Last Accessed 08 Feb 2019
- European Federation of Radiographer Societies (2018) Continuous professional development recommendations and guidance notes. European Federation of Radiographer Societies, Utrecht. Available via https://www.efrs.eu/publications Last Accessed 08 Feb 2019
- Faculty of Radiologists (2015) Guidelines for the Implementation of a National Radiology Quality Improvement Programme - Version 3.0. Faculty of Radiologists, Royal College of Surgeons in Ireland, Dublin. Available via https://www.radiology.ie/images/uploads/2012/01/National-Radiology-QI-Guidelines-V3-09072015.pdf Last Accessed 08 Feb 2019
- European Society of Radiology (ESR) (2015) Summary of the European Directive 2013/59/Euratom: essentials for health professionals in radiology. Insights Imaging 6:411–417View ArticleGoogle Scholar
- European Society of Radiology (ESR) (2018) The ESR Audit Tool (Esperanto): genesis, contents and pilot. Insights Imaging 9:899–903 Available viaView ArticleGoogle Scholar
- Guenette JP, Smith SE (2017) Burnout: prevalence and associated factors among radiology residents in New England with comparison against United States resident physicians in other specialties. AJR Am J Roentgenol 209:136–141View ArticleGoogle Scholar
- Bakker AB, Demerouti E, Sanz-Vergel A (2014) Burnout and work engagement: the JD-R approach. Annu Rev Organ Psychol Organ Behav 1:389–411View ArticleGoogle Scholar
- Maslach C, Schaufeli WB, Leiter MP (2001) Job burnout. Annu Rev Psychol 52:397–422View ArticleGoogle Scholar
- Peckham C (2018) Medscape national physician burnout & depression report 2018. Medscape, New York. Available via https://www.medscape.com/slideshow/2018-lifestyle-burnout-depression-6009235?faf=1#1 Last Accessed 08 Feb 2019
- Berger M (2017) Under stress: radiologists embrace novel ways to tackle burnout. ECR Today, 4th March 2017. p. 1-2. Available via https://www.myesr.org/sites/default/files/Saturday_newspaper.pdf Last Accessed 08 Feb 2019
- Waite S, Kolla S, Jeudy J et al (2017) Tired in the reading room: the influence of fatigue in radiology. J Am Coll Radiol 14:191–197View ArticleGoogle Scholar
- Harolds JA, Parikh JR, Bluth EI, Dutton SC, Recht MP (2016) Burnout of radiologists: frequency, risk factors, and remedies: a report of the ACR Commission on Human Resources. J Am Coll Radiol 13(4):411–416View ArticleGoogle Scholar
- European Society of Radiology (ESR) (2018) Statutes of the European Society of Radiology. European Society of Radiology, Vienna. Available via https://www.myesr.org/about-esr/statutes Last Accessed 08 Feb 2019
- European Federation of Radiographer Societies (2008). EFRS Constitution. European Federation of Radiographer Societies, Utrecht. Available via https://www.efrs.eu/publications Last Accessed 08 Feb 2019
- Vivekananda-Schmidt P, Sandars J (2016) Developing and implementing a patient safety curriculum. Clin Teach 13:91–97View ArticleGoogle Scholar
- World Health Organization (2009) Patient Safety Curriculum Guide for Medical Schools. World Health Organization, Geneva. Available via https://www.who.int/patientsafety/information_centre/documents/who_ps_curriculum_summary.pdf?ua=1 Last Accessed 08 Feb 2019
- Tregunno D, Ginsburg L, Clarke B, Norton P (2014) Integrating patient safety into health professionals’ curricula: a qualitative study of medical, nursing and pharmacy faculty perspectives. BMJ Qual Saf 23:257–264View ArticleGoogle Scholar
- King J, Anderson CM (2012) The Canadian interprofessional patient safety competencies: their role in healthcare professionals’ education. J Patient Saf 8:30–35PubMedGoogle Scholar
- Nie Y, Li L, Duan Y et al (2011) Patient safety education for undergraduate medical students: a systematic review. BMC Med Educ 11(33):1–8Google Scholar
- Frankel A, Haraden C, Federico F, Lenoci-Edwards J (2017) A framework for safe, reliable, and effective care. White paper. Institute for Healthcare Improvement and Safe & Reliable Healthcare, Cambridge, MA. Available via https://www.medischevervolgopleidingen.nl/sites/default/files/paragraph_files/a_framework_for_safe_reliable_and_effective_care.pdf Last Accessed 08 Feb 2019
- European Society of Radiology (2017) Curriculum for undergraduate radiological education. European Society of Radiology, Vienna. Available via https://www.myesr.org/media/2843 Last Accessed 08 Feb 2019
- European Society of Radiology (ESR) (2018) European training curriculum for radiology (Level I and II). European Society of Radiology, Vienna. Available via https://www.myesr.org/media/2838 Last Accessed 08 Feb 2019
- European Society of Radiology (ESR) (2018) European training curriculum for subspecialisation in radiology (Level III). European Society of Radiology, Vienna. Available via https://www.myesr.org/media/2840 Last Accessed 08 Feb 2019
- European Federation of Radiographer Societies (2016) European Qualifications Framework (EQF) level 7 benchmarking document: radiographers. Federation of Radiographer Societies, Utrecht. Available via https://www.efrs.eu/publications Last Accessed 08 Feb 2019
- European Commission (2014) Guidelines on radiation protection education and training of medical professionals in the European Union. http://www.eurosafeimaging.org/wp/wp-content/uploads/2015/05/175.pdf; www.medrapet.eu Last Accessed 08 Feb 2019