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Infection prevention and control in the medical imaging environment: a scoping review


Infection prevention and control (IPC) practices are key to preventing and controlling the spread of pathogens in medical imaging departments (MIDs). The objective of this scoping review was to synthesise information about current research in MID regarding IPC and to use the Systems Engineering Initiative for Patient Safety (SEIPS) model to identify the work system factors (‘persons’, ‘organisation’, ‘tools and technology’, ‘tasks’ and ‘environment’) influencing the practice of IPC, in order to better understand challenges and facilitators that affect IPC in MID. Predefined search terms and medical subject headings relating to IPC in the medical imaging setting were used to search 3 databases. A total of 46 publications met the inclusion criteria, which combined, encompassed all five SEIPS domains influencing IPC. The literature supports the interrelated nature of the five SEIPS domains, and influence to one another. Hand hygiene was a major focus of publications. Mechanisms of infection in contrast-enhanced computed tomography were most reported, with human error, lack of education, and issues associated with devices and processes mechanisms found to influence IPC breaches. A systems approach, such as the SEIPS model, is useful for understanding barriers and hence opportunities for improvement of IPC in the medical imaging setting. Future studies should address individuals’ decision-making processes in the medical imaging setting, and a greater focus should be placed into the procedural steps, education and tools used for contrast media administration.

Critical relevance statement

A systems approach, such as the Systems Engineering Initiative for Patient Safety model, is useful for understanding barriers and hence opportunities for improvement of IPC in the medical imaging setting.

Graphical Abstract

Key points

  1. 1.

    IPC in the medical imaging setting would benefit from a systems approach.

  2. 2.

    The role of education and monitoring of IPC compliance requires further research.

  3. 3.

    Geographical location is a key variable in IPC research in medical imaging.


Medical imaging services are an integral component of the healthcare system [1]. In Australia and worldwide, medical imaging services are provided for diagnostic or treatment purposes in a range of settings, including public hospitals, private hospitals, and private practices, and are offered as out-patient and in-patient services. Risks of healthcare-associated infections in the radiology department were recently described by Ilyas et al., where contamination areas were identified in radiology equipment, medical devices and general usage areas [2]. This is supported by a recent systematic review by Picton-Barnes et al., which identified twelve studies describing infectious organisms present in diagnostic radiography departments, suggesting the need for improved infection control methods and/or compliance training to minimise infection risk [3]. Recommendations in opinion and commentary articles in medical imaging were frequently published after 2019, focusing on the COVID-19 pandemic [4,5,6,7,8]. The main topics in these publications were operational protocols used by radiology departments to safely image patients with suspected or confirmed COVID-19 diagnosis, and importance of hand hygiene.

Infection prevention and control (IPC) measures aim to prevent and control the spread of pathogens between people in healthcare settings. Whilst the importance of healthcare professionals adhering to IPC guidelines is well recognised, multiple studies report that healthcare professionals often fail to comply with standard precautions [9,10,11]. In the complex healthcare environment, it is expected that multiple factors impact healthcare professionals’ IPC practices. Factors may include an individual’s knowledge and behaviour, workplace culture and training, as well as the macro-work system in which an individual works. As such, the Systems Engineering Initiative for Patient Safety (SEIPS) model [12] provides a suitable framework for IPC practice descriptions in medical imaging. The SEIPS model has been used in health settings to identify deficiencies that can impair the delivery of high-quality care to patients, and focuses on healthcare structures, relationships, and processes for delivering patient-centred care [13, 14]. Specifically, the SEIPS model aims to describe the effects of a work system and process on health outcomes within five interrelated components: “persons”, “organisation”, “technologies and tools”, “tasks” and “environment” Sections [15]. In this model, an individual is the centre of the work system, the organisation consists of structures external to a person within which work is performed, tools and technologies are devices that are used to conduct tasks, tasks are specific actions within the larger work process, and the environment includes physical and safety environment factors [12, 16]. Table 1 describes how the SEIPS framework can be applied to medical imaging.

Table 1 Systems engineering initiative for patient safety (SEIPS) framework applied to medical imaging

To our knowledge, the SEIPS model has not been used in the medical imaging field to identify work system factors influencing IPC. The objective of this scoping review was to synthesise information about current research methods used in medical imaging departments (MID) regarding IPC and to use the SEIPS model to identify the previously described work system factors influencing the practice of IPC. For this scoping review, MID encompass medical imaging clinical settings in public hospitals, private practice, as well as specific areas, such as general X-ray, computed tomography (CT) and magnetic resonance imaging (MRI). The review does not cover medical imaging that is conducted remotely to the core practice of imaging, such as where the responsibility for infection control within the “organisation” Section is not managed by a radiology department (e.g. day surgeries, operating theatres, cardiology units or sterile units).


The scoping review was conducted in accordance with the framework for scoping reviews based on Joanna Briggs Institute methodology for conducting scoping reviews [17]. The Preferred Reporting Items for Systematic Reviews and Meta-analysis (PRISMA) reporting guideline extension for scoping reviews was followed [18].

Inclusion and exclusion criteria

Studies that addressed staff working in the medical imaging setting, including radiographers, nurses, and radiologists, were included. Sonographers and staff working exclusively in sonography settings/practices were excluded. Studies that explored IPC were considered when they applied to individuals (patients and staff), team setting or organisational approaches. The concept of IPC aimed to encompass all measures that aim to prevent and control the spread of pathogens between people in the medical imaging setting, excluding sonography. This was primarily due to physical and practical differences between equipment used in sonography to those in other medical imaging settings. Other locations, where infection control was not managed by a radiology department, for example portable radiography in intensive care units (ICUs), were also excluded. The rationale for this is that these dedicated wards, such as ICU, are usually managed by a Nursing Unit Manager and may have specific requirements for IPC such as isolation rooms and reverse barrier care. In publications where interventions to improve IPC were described, they were only included when they focused on outcomes relating to knowledge, attitude and/or practice of IPC, and publications that focused solely on a description of the intervention itself were excluded. The scoping review considered all peer-reviewed publications that explored individuals’ attitudes, behaviour or practice relating to IPC in the medical imaging setting. Recommendations, editorial, opinions or commentary articles were excluded. Including all other study types, allowed an exploration of the scope of available literature, and to better understand how researchers approach investigation of IPC in the medical imaging context. Publications between 1992 and 2022 were included. Exclusion criteria applied to studies published in languages other than English, unless the abstract was available in English, which was noted as data collected from an abstract only. This was due to language limitations by authors and uncertainty of translation by automated methods.

Search strategy

Searches were conducted on Medline, Web of Science, and Scopus for publications between 1992 and 2022 using the following search terms: attitude*, practice, knowledge, radiograph*, radiolog*, X-ray, computed tomography, CT, magnetic resonance imaging, MRI, infection control, infection prevention, infection prevention and control, contaminat*, combined with Boolean operators “AND” and “OR”. The final search was conducted in October, 2022.

Screening and data charting process

Covidence [19] was used to manage references, remove duplicates and review retrieved studies to include in the scoping review. Two reviewers assessed all titles and abstracts independently and determined articles to include for full-text review by consensus. Both authors bring diverse perspectives from their clinical and academic experience, one author having more than 20 years’ experience in CT clinical education as a radiographer (Lewis) and the other more than 20 years in radiation therapy education (Jimenez). Selected articles were screened in full text independently by two reviewers, and studies meeting the inclusion criteria were included in the scoping review. A third reviewer was not required to mediate decisions. This process is presented in Fig. 1.

Fig. 1
figure 1

Flowchart of study inclusion

Data charting was carried out using Covidence [19] and Microsoft Excel (Microsoft Corporations, Redmond, Washington). Relevant data were extracted from each of the included articles and synthesised into relevant topics. For publications with clinical or simulated data collection, aims of the study, geographic location of the study, data collection method, clinical setting, study sample were extracted. In addition, SEIPS domains within the results and discussion sections were identified for each of the included publications, guided by the descriptions in Table 1. Included studies were synthesised, and the results were organised by SEIPS model factors for articles that included each of the SEIPS domains. A formal assessment of quality of included studies was not undertaken, as it is not a typical feature of scoping reviews.


Overview of included studies

A total of 46 articles were included in the scoping review. Included articles were published between the year 1995 and 2021, as detailed in Fig. 2. There were three main types of literature included: eleven incident report reviews or case studies [20,21,22,23,24,25,26,27,28,29,30], five literature reviews [2, 31,32,33,34], and thirty articles that employed data collection or clinical evaluations [35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64].

Fig. 2
figure 2

Included studies visualised by year of publication (n = 46)

Incident reports and case studies

Incident report reviews and case studies are summarised in Table 2, and the SEIPS domains included within the studies are shown in Fig. 3. These eleven publications provide an insight into IPC breaches that occur in the medical imaging environment. Within the SEIPS framework, the breaches most commonly related to the “person” Section domain, followed by “organisation” and “tasks” Sections. All but one incident report review/case study [20] had at least two SEIPS domains identified, with most publications integrating four domains (“Person”, “Organisation”, “Tools and technology”, and ‘Tasks’ Sections). Only one study included reference to ‘Environment’ [30].

Table 2 Study characteristic for included incident report reviews and case studies (n = 11)
Fig. 3
figure 3

Summary of SEIPS domains within the included incident report reviews and case studies (n = 11). *Abstract only

Literature reviews

The topics researched in the included literature reviews focused on the COVID-19 pandemic [31, 33, 34] as well as pre- COVID-19 publications on general overview of healthcare-associated infections in the radiology department [2], and information on how to minimise infection transmission in the radiology department [32]. Some authors within the literature review publications associated the quality of IPC with staff knowledge and importance of standard precautions for all patients. They implied that transmission of infection organisms can occur at any stage of radiologic examinations.

Key methods for evaluating IPC in medical imaging departments.

For studies that included data collection (n = 30), there was a consistent trend in number of publications over the years, with a higher number of publications in the last five years. The most reported geographic location of the MID where data collection occurred (rather than authors’ affiliation) was Germany (n = 6). The type of data collection methods used most commonly were surveys/questionnaires [42, 43, 48,49,50,51, 53,54,55, 57,58,59,60,61,62,63,64], followed by microbial analysis [35, 37,38,39,40,41,42,43,44, 46, 47, 52, 54, 56], simulation studies [35, 36, 38, 52], direct observation or review of practice [44, 49, 51], timing [41, 43], and animal studies [45], as described in Table 3. The number of citing texts including each of the five SEIPS domains for studies that included data collection is shown in Fig. 4. The most common domains within these publications were “Tools and Technology” and “Person” Sections, with the least domain identified being ‘Environment’.

Table 3 Methods used in publications to explore IPC issues in medical imaging (n = 30)
Fig. 4
figure 4

Summary of SEIPS domains within the included studies that employed data collection or clinical evaluations (n = 30). *Abstract only

SEIPS Framework

To answer the research questions regarding domains of the SEIPS model that affect or influence IPC in medical imaging, the results of this scoping review are presented in five thematic sections: “Person”, “Organisation”, “Tools and technology”, “Tasks” and “Environment” Sections. Key topics within all included literature were identified, and examples from selected articles are provided, with the intention of addressing the five domains within the SEIPS framework.


Health professionals in the included studies were radiological technologists or radiographers (referred to as radiographers herein), radiologists, medical staff/fellows and residents, nurses, and healthcare assistants. Most studies described hand hygiene related to staff working in MID and focused on specific aspects of hand hygiene, including interventions to improve hand hygiene practice [37, 49, 53, 54]. Two case studies reported on hand hygiene breaches by a radiographer. One resulted in bacterial infection of two patients [20] and the other in joint infections in seven patients after undergoing a magnetic resonance arthrogram [24]. Discussion relating to the importance of hand hygiene was significant in three literature reviews, published during the COVID-19 pandemic [31, 33, 34]. The common driver for hand hygiene in the included studies was the need for collaborative efforts of all radiology staff to assure provisions of high-quality and safe medical imaging services while safeguarding the health of the public, patients and healthcare professional, and this context was not exclusive to post-COVID-19 publications.

Five studies examined outcomes of an education intervention on hand hygiene [37, 38, 49, 53, 54]. O’Donoghue et al. reported that overall hand hygiene improved significantly following an education intervention. However, during their observations, it was reported that almost half of hand hygiene opportunities were missed by staff, indicating that further reinforcement of education may be needed. In the study by O’Donoghue et al., the effect of the intervention was evaluated two weeks after completion, demonstrating short-term compliance; however, long-term compliance was not evaluated [49]. Buerke et al. suggested that hygienic procedures should be evaluated using microbiology surveillance and unannounced evaluations of hygiene in CT departments [38]. Evaluation of an education intervention by Quon et al. focused on radiologists’ workstations in a Canadian tertiary care institution [53]. It was found that the percentage of radiologists who disinfected their workstations increased following education intervention; however, there were a small number of participants who indicated that disinfection was not necessary (9.5%). Attitudes towards whom should clean workstation varied, and trended towards ‘individual staff’ who used the workstations (52.7%), followed by ‘house-keeping staff’ (37.8%).

Studies that examined staff’s knowledge of IPC provided a range of insights from different professions. From a sample of 152 radiologists, Srivatstava et al. found that just over 50% of study participants had never attended a training session on IPC prior to the COVID-19 pandemic, and the majority (86%) indicated that their knowledge on IPC had improved during the COVID-19 pandemic [64]. Another study [57] described poor compliance with infection control practices among dental radiographers, and compliance was inconsistent across demographic factors and types of infection control practices. The reason for variation among demographic groups was reported to be unclear; however, a general trend was that less experienced radiographers were more likely to follow IPC procedures, and those that performed fewer dental radiographs, or radiographs in private clinics, were more likely to implement IPC procedures. An increased awareness of IPC in radiographers with longer working experience was also found in a study by Fohely et al., based on a sample of 40 radiographers [63].

The case studies included in this review provided insights into the consequences of staff’s IPC knowledge, practice breaches and use of equipment. Sarvananthan et al. reported that infection control was one of 14 incident type categories in a MID, accounting for only 1.35% of incidents [29]. The transmission of Hepatitis C was described in studies relating to contrast-enhanced CT procedures [22, 26,27,28]. For example, in the study by Balmelli et al., breaches in safe injection practices were attributed to vial contamination, yet unsafe practices were not self-reported by staff who were interviewed [28].

One study provided a patient lens to the concept of IPC in MID. Carotenuto et al. surveyed patients whose elective MRI procedures had been delayed due to the COVID-19 pandemic. It was identified that patients considered MRI to be safe to visit and prioritised staff practices, such as using masks, as an important IPC factor [61].


Studies that evaluated or discussed the relationship between medical imaging organisational factors, such as organisation culture, staffing number, interdisciplinary communication and collaboration and incident reporting were not evident in the included literature. However, Source control, early detection of suspected COVID-19 cases followed by immediate isolation of such patients, establishment of efficient central coordination between hospital IPC centre, and the radiology department were highlighted by Srivastava et al., [64]. It was also noted that 54% of radiologists had not had any formal IPC training from their organisation prior to the COVID-19 pandemic [64].

Other organisational barriers reported in the literature included limited information available for health professionals. For example, Quon et al. indicated that at one institution, no current protocol mandating workstation disinfection was present, and further all participants in their study indicated that they had never received instruction on how to properly disinfect their workstation, leading to individual’s personal discretion when making decisions about disinfection practices in the radiologist workstation setting [53].

One study [29] showed that their results support projects to investigate ways to improve patient safety culture within medical imaging. One way to foster an improved patient safety culture was by promoting group discussions and shared accountability in advocating for safe care, for example, by conducting weekly quality conversations and selecting a modality-specific safety representative [29]. Further, concerns about underreporting IPC, standardisation of incident reporting, and reduced barriers to reporting will be essential in improving the effectiveness of the current safety incident report system.

Tools and technology

IPC relating to equipment used in medical imaging included bacterial infection on computed radiography consoles on Hospital Information system/Radiology Information System terminals, which were not wiped down and cleansed as part of routine cleaning, and disinfection [42]. Regular disinfection of all surfaces that patients may be in contact with, and the use of dedicated portable X-ray or diagnostic equipment was also recommended [64].

It was also considered that medical devices/technologies, such as contrast injectors, required a level of skill to be used and a suitable environment in which to operate and maintain the equipment. A study by Shteyer et al. reported on an outbreak of acute Hepatitis C (AHC) among 12 patients who received intravenous saline flush from a single multi-dose vial after intravenous contrast administration for a CT scan in a medical centre in Israel [26]. From the investigations conducted, it was identified that the saline flush was the common source of exposure among the AHC patients. The study highlighted the importance of using extra care to ensure that no contamination occurs, since even microliter amounts of infected blood diluted in saline can lead to Hepatitis C virus (HCV) outbreaks, and further emphasises the need for prevention strategies and vaccines to eliminate HVC transmission.

The medical imaging setting also comprises of reporting rooms, where radiologists and other staff view and report on images. One study [53] reported on microbial contamination in radiology reporting workstations, which are often shared by staff, and where people may interact with up to 4 different workstations per shift. Hand sanitiser units were mostly considered readily available within the environment, situated within walking distance, yet could be improved by placing within each reading room. Having place cards on desks to remind radiologists of disinfection were used. In addition, each examination room had a handwashing sink and an alcohol-based hand rub dispenser.

Personal protective equipment (PPE) was also highlighted as key tool relating to IPC in MID. The importance of masks and/or gloves was highlighted in many studies [49,50,51, 57, 59, 61, 64], including the lack of resources or breaches of PPE as major challenges to IPC in MID [21, 23, 29, 51, 55, 62], including identified detriments to patients’ health [21, 23, 29].


For radiographers and other staff working in the medical imaging environment, procedures are usually multi-step and may involve positioning and stabilising the patient for imaging, operating equipment and if required, cannulating and/or connecting the patient to a contrast media injector. IPC steps are integrated into these tasks, and evidence of sub-optimal hand hygiene was reported in the literature. For example, hand-hygiene opportunities before and after patient contact were missed in 78% of occasions, as reported in an observation study [49]. Workload and time pressures may negatively impact IPC in medical imaging settings, and this was highlighted by a study evaluating five different aspects of IPC [57]. In addition, time and resources needed during pre- and post-CT scans were amplified during the COVID-9 pandemic [34].

Examples of contamination in the medical imaging setting related to infection of patients with Hepatitis C [22]. Examples included in the case study identified high-risk tasks and sub-optimal care taken undertaken in the process of administering saline flush from a multi-use larger saline bag after the injection of radioisotopes and possible re-use of needles between pharmaceutical injection and saline [22].


Included articles reported on environmental modifications to the MID in response to the COVID-19 pandemic [24, 31, 34, 64]. This included triage stations at entry of healthcare facility and visual warnings, such as IPC posters and signs. Reminders relating to IPC located visibly within the environment were also highlighted, for example using visible place cards relating to cleaning of computer workstations [34]. When considering modifications to the physical environment, results from a survey conducted by Srivatstava et al. identified that radiologists considered the radiography table and CT scanner as the most likely areas of the radiology department for pathogen exposure [64]. Hence, IPC practice focused on the cleaning and disinfecting these hard surfaces and areas. Air quality was also mentioned by Srivatstava et al., suggesting patients should have adequately ventilated rooms [64]. In a retrospective analysis, poor understanding of the COVID-19 disease was attributed to healthcare-associated COVID-19 transmission in 2 radiology departments in China [30]. Modifications to the environment, for example establishment of isolation and sterilisation zones, were recommended to meet the demands placed by the disease transmission mechanism.


This scoping review identified work system factors using the SEIPS model that influence the practice of IPC in MID. Many publications reported on multiple levels of engagement, and as such, all five domains of the SEIPS model were identified in the included studies. The SEIPS model provides insights of the entire system, which may be used to uncover the causes of errors and near misses relating to IPC in MID, as described in Table 2 for the eleven included case studies and incident reports.

Medical imaging environments are not generally categorised as sterile zones, and MID in hospitals experience ongoing interactions between patients and staff, and often high staff and patient rotation. During medical imaging procedures, a healthcare professional will follow a few procedural steps, in which active participation of IPC guidelines and best practice is required. The SEIPS framework suggests that when analysing challenges of IPC, an individual’s performance should be examined for the purpose of re-designing work systems to reduce barriers to human performance [10].

The scoping review provided insights about the level of knowledge of IPC and specific attitudes to IPC and practices of IPC for staff working in MID. Hand hygiene was the focus of most published studies. Hand hygiene is a behaviour associated with individuals, which includes an inherent component that is a natural self-protecting in response to visibly or conceptually contaminated hands [65]. In contrast, reinforcement by organisations may be required for individuals to adopt practices of hand hygiene that are not instinctive. Reinforcement of the importance of elective components of hand hygiene, compared to inherent components, links to education and monitoring of the behaviour, which can be categorised as the organisation’s responsibility. Whilst education interventions were shown to strengthen health professionals’ hand hygiene and IPC practice in five studies [37,38,39, 53, 54], evidence about the monitoring or pre-requisites for medical imaging professionals’ willingness to use best practice in IPC is lacking from the identified literature. In addition, the decision for individuals to perform hand hygiene is influenced by both automatic and conscious processes. In observational studies that identified breaches in performance, data were not collected about reasons for non-compliance (for example, asking staff about missed opportunities immediately following the event), suggesting the need for further research in this area.

For hand hygiene, tools and the availability of resources are important factors [66]. For example, one study described that improvement of the location of alcohol-based hand rub at point of care, facilitated decontamination of hands. The concept of the environment also links to the concept of IPC behaviours as being an essential part of the professional role, and creating an environment that encourages positive behaviour. Importantly, for staff to adhere to preferred IPC behaviours, they require an environment that supports these actions. It is reported that workload and time pressure may negatively impact IPC in healthcare settings [66], and this was supported in one study included in this review, which noted that higher patient caseload could be associated with lower compliance with IPC [57].

Environmental issues with IPC published since the year 2020 mainly focused on modifications to the medical imaging environment in response to the COVID-19 pandemic. This integrated the concern for increased risk of radiographers contracting COVID-19 due to routine diagnosis, assessment and monitoring of COVID-19 patients using medical imaging procedures [34]. A focus on disinfection of imaging and treatment beds, equipment, and considerations of air quality were reported [64]. Adaptation, as a response to the complexity of health care in pandemic times, was evident in the literature. These adaptations were discussed in the form of adjustments that people and organisations needed to make to conduct their work safely, such as being spatially aware and procedurally orientated when moving about medical imaging rooms and settings, considering that infection risk (as is the case with COVID-19) is not often visual, but more broadly related to shared environments.

Sub-optimal task performance at each of the stages of medical imaging procedure was considered to place staff member or patients at risk. Case studies identified in the scoping review provided insights into breaches, and breaches related to all SEIPS domains. The transmission of HCV was described in studies relating to contrast-enhanced CT procedures and nuclear medicine studies [21, 22, 26,27,28]. For example, in the study by Balmelli et al., breaches in safe injection practices were attributed to vial contamination. Interestingly, interviews with healthcare workers revealed that no one reported that they had undertaken such behaviour [28]. This confirms the limitation of interviews and self-reported data collection for IPC practice, where desirable responses are observed and there is fear of litigation. This is supported by previous studies acknowledging the under-reporting of errors in MID [67]. Knowledge-based tasks require providers to problem-solve when faced with new situations or reinforce best IPC practices at intervals to ensure up-to-date knowledge. Knowledge-based errors occur when a health professionals’ knowledge is incomplete or incorrect [34], and the health professional does not know what they must know or where standards may have changed in response to new evidence.

The scoping review identified that IPC studies in the medical imaging setting include prospective studies using self-reported surveys and microbial analysis as the most used study designs for data collection, followed by mixed methods study designs involving simulation and observation. Case studies and incident reports focus mostly on microbial measurements and viral analysis. IPC knowledge, attitude and practice were mostly captured in survey-based studies. Whilst these methods can be useful, they provide heterogeneous data, which incorporates social desirability bias, and is possible that participants report that they perform certain behaviours more or less than they do. In addition, data from these studies do not contribute to improved understanding relating to reasons why an IPC behaviour is performed or not performed. Combining staff interviews with observation may provide a more accurate view of compliance. The evaluation of IPC breaches was reported in the case studies, yet these focused on the task, tools and technologies, rather than the operator, organisation or environment, so it is not clear what was the influence on personal behaviour. In addition, details of the IPC breach were lacking. In most cases, tasks that involved IPC breaches from the included studies related to the skills-based cognitive domain, which resulted from failure to carry out best practice by lack of attention or when actions are omitted (e.g. missed opportunities for hand hygiene). It was not evident from the literature if these skill-based errors occurred due to a specific situation, for example time pressures, specific type of patients, or multi-tasking. In addition, most IPC failure data emerged from self-reported surveys, which as previously discussed, may not be the optimal source of this type of data.

Implications for practice and future research

Evaluation or discussion of the relationship between medical imaging organisational factors, such as organisation culture, staffing number, interdisciplinary communication and collaboration and incident reporting, is generally evident in types of studies not included in this scoping review, for example, commentary articles released in response to the COVID-19 pandemic [4,5,6,7,8]. In these publications, the motivation to provide a safe working environment for medical imaging staff and patients was strongly emphasised by leaders within MID. Culture is developed over time by leaders who set a vision for safety as a priority of care, and who manage change effectively. Leaders must build trust because it is a cornerstone of a culture safety [4]. In addition, it can be considered that without trust, health professionals will not discuss near-misses, responses should adopt a non-punitive approach where health professionals are not blamed, but rather, the system is examined to find ways to improve task, technology, environment, or communication. Commentary articles suggest that staff shortage, lack of resources and lack of communication can be associated with IPC challenges in the medical imaging setting.

In the future, it will be important to undertake research to better understand the current culture, teamwork environment, and usability of the technology and processes involved that may challenge IPC in MID. In addition, observational research methods are currently under-reported and may best serve to identify underlying systems. Interestingly, none of the papers that investigated education interventions to improve knowledge and behaviour in IPC applied a theoretical framework or looked at long-term outcomes in staff knowledge or behaviour, nor patient outcomes or monitoring of outcomes over time. Hence, it is unknown whether results of current education are long lasting. There is a need for future studies to prospectively implement and evaluate IPC education and training in MID to ascertain the long-term benefits and role of monitoring. Finally, further research could focus on contrast media in CT imaging, considering that these were the main source of reported adverse outcomes for patients in the included studies.

The important role of radiographers in performing mobile imaging in high care environments such as ICUs, with strict IPC guidelines, is recognised. However, in the case of this scoping review, mobile radiography was excluded, as the protocols and unique needs of nursing and surgical areas outside radiology departments are generally managed by external health staff, such as Nursing Unit Managers. We suggest that future research and education are also required for imaging that takes place as a mobile examination (such as imaging in ICU) to ensure radiographers understand the unique requirements of these high care environments, such as patients and staff working in isolation and barrier areas.


Limitations may exist in this scoping review due to the review process and design. The search was limited to English-language publications, and the body of literature related to this topic may also be subject to publication bias, as negative outcomes are less likely to be published. It is possible that some applicable studies were missed due to incomplete search terms or unintended reviewer bias. The inclusion of abstracts in the review limited the information available to be extracted due to the concise nature of this type of publication. Potential sources of heterogeneity in our scoping review are different study populations, diverse geographical regions and study designs; consequently, the results should be interpreted with caution. Diversity in geographical regions needs to be taken into consideration when interpreting results from this study, as practice and availability of resources is known to vary between different countries, where work conditions, infrastructure and healthcare systems are diverse.


IPC in the medical imaging setting would benefit from a systems approach, linking the five components: “person”, “organisation”, “tools and technologies”, “tasks’ and ‘environment” Sections. The identified literature supports the interrelated nature of the five components and influence on one another; further evidence is required to establish how changes to one component affect the others. To make solid inferences and suggest recommendations for practice and policy, systematic reviews and focused IPC studies in the medical imaging domain are suggested. Future studies also need to address the role of education and monitoring of IPC compliance in the clinical setting, to increase the body of knowledge regarding the long-term outcomes of education interventions.

Availability of data and materials

All data generated or analysed during this study are included in this published article and its supplementary information files.



Acute Hepatitis C




Computed tomography


Hepatitis C virus


Infection Prevention and Control


Medical Imaging Departments


Magnetic resonance imaging


Preferred Reporting Items for Systematic Reviews and Meta-analysis


Systems Engineering Initiative for Patient Safety


  1. Brady A, Brink J, Slavotinek J (2020) Radiology and value-based health-care. JAMA 324:1286

    Article  PubMed  Google Scholar 

  2. Ilyas F, Burbridge B, Babyn P (2019) Health care-associated infections and the radiology department. J Med Imaging Radiat Sci 50:596–606

    Article  PubMed  PubMed Central  Google Scholar 

  3. Picton-Barnes D, Pillay M, Lyall D (2020) A systematic review of healthcare-associated infectious organisms in medical radiation science departments. Healthcare 8(2):80

    Article  PubMed  PubMed Central  Google Scholar 

  4. Davenport MS, Bruno MA, Iyer RS et al (2020) ACR statement on safe resumption of routine radiology care during the Coronavirus Disease 2019 (COVID-19) Pandemic. J Am Coll Radiol 17:839–844

    Article  PubMed  PubMed Central  Google Scholar 

  5. Eastgate P, Neep MJ, Steffens T, Westerink A (2020) Covid-19 pandemic- considerations and challenges for the management of medical imaging departments in Queensland. J Med Rad Sci 67:345–351

    Article  Google Scholar 

  6. European Society of Radiology (ESR) and European Federation of Radiographer Societies (EFRS) (2019) Patient safety in medical imaging: a joint paper of the European Society of Radiology (ESR) and European Federation of Radiographer Societies (EFRS). Insights Imaging 10:45.

  7. Goh Y, Chua W, Lee JKT et al (2020) Operational strategies to prevent Coronavirus disease 2019 (COVID-19) spread in radiology: experience from a Singapore radiology department after severe acute respiratory syndrome. J Am Coll Radiol 17:7171–7723

    Article  Google Scholar 

  8. Qu J, Yang W, Yang Y, Qin L, Yan F (2020) Infection control for CT equipment and radiographers’ personal protection during the coronavirus disease (COvid-19) outbreak in China. AJR Am J Roentgenol 215:940–944

    Article  PubMed  Google Scholar 

  9. Borg MA (2014) Cultural determinants of infection control behaviour: understanding drivers and implementing effective changes. J Hosp Infect 86:161–168

    Article  CAS  PubMed  Google Scholar 

  10. Hadaway L (2012) Needleless connectors for IV catheters. Am J Nurs 112(11):32–46

    Article  PubMed  Google Scholar 

  11. 1l. Moureau N (2013) Safe patient care when using vascular access devices. Br J Nurs 22(2).

  12. Carayon P, Schoofs Hundt A, Karsh B-T, et al. (2006) Work system design for patient safety: the SEIPS model. Qual Saf Health Care 15(Suppl 1):i50–i58

    Article  PubMed  PubMed Central  Google Scholar 

  13. Ede J, Vollam S, Darbyshire JL, Gibson O, Tarassenko L, Watkinson P (2021) Non-contact vital sign monitoring of patients in an intensive care unit: a human factors analysis of staff expectations. Appl Ergon 90:103149

    Article  PubMed  Google Scholar 

  14. Watt A, Jun GT, Waterson P (2019) Resilience in the blood transfusion process: everyday and long-term adaptations to ‘normal’ work. Saf Sci 120:498–506

    Article  Google Scholar 

  15. Holden RJ, Carayon P, Gurses AP, et al. (2013) SEIPS 2.0: a human factors framework for studying and improving the work of healthcare professionals and patients. Ergon 56(11):1669–1686

    Article  Google Scholar 

  16. Carayon P, Wood KE (2010) Patient safety: the role of human factors and system engineering. Stud Health Technol Inform 153:23–46

    PubMed  PubMed Central  Google Scholar 

  17. Peters MDJ, Godfrey C, McInerney P, Munn Z, Tricco AC, Khalil, H. Chapter 11: Scoping Reviews (2020 version). In: Aromataris E, Munn Z (Editors). JBI Manual for Evidence Synthesis, JBI, 2020.

  18. Tricco AC, Lillie E, Zarin W et al (2018) PRISMA extension for scoping reviews (PRISMA-ScR): checklist and explanation. Ann Intern Med 169:467–473.

    Article  PubMed  Google Scholar 

  19. Covidence systematic review software, Veritas Health Innovation, Melbourne, Australia.

  20. Nihonyanagi S, Hirata Y, Akabosi T et al (2006) Nonsocomical infection by multidrug-resistant pseudomonas aeruginosa (MDRP) presumably spread a radiation technician. Kansenshogaku Zasshi 80(2):97–102

    Article  PubMed  Google Scholar 

  21. Paňella H, Rius C, Cayla JA (2008) Barcelona Hepatitis C Nosocomical Research Working Group. Transmission of Hepatitis C virus during computed tomography scanning with contrast. Emerg Infect Diseases 14(2):333–336

    Article  Google Scholar 

  22. Moore ZS, Schaefer MK, Hoffman KK et al (2011) Transmission of Hepatitis C virus during myocardial perfusion imaging in an outpatient clinic. Am J Cardiol 108:126–132

    Article  PubMed  Google Scholar 

  23. Chitnis AS, Guh AY, Benowitz I et al (2012) Outbreak of bacterial meningitis among patients undergoing myelography at an outpatient radiology clinic. J Am Coll Radiol 9:185–190

    Article  PubMed  PubMed Central  Google Scholar 

  24. Kim M, Tyson C, Masola L (2013) Outbreak of joint infections associated with Magnetic resonance arthrograms performed at an outpatients radiology centre. Infect Control Hosp Epidemiol 34:11

    Article  Google Scholar 

  25. Mansouri M, Aran S, Harvey HB, Shaqdan K, Abujudeh HH (2016) Rates of safety incident reporting in MRI in a large academic medical centre. J Magn Reson Imaging 43(4):998–1007

    Article  PubMed  Google Scholar 

  26. Shteyer E, Shekhtman L, Zinger T et al (2019) Modeling suggests that microliter volumes of contaminated blood caused an outbreak of hepatitis C during computerised tomography. PLoS One 14(1):e0210173

    Article  CAS  PubMed  PubMed Central  Google Scholar 

  27. Zakrzewska K, Stepien M, Rosinska M (2019) Hepatitis C in Poland in 2017. Przelgl Epidemiol 73(2):167–178

    Article  Google Scholar 

  28. Balmelli C, Merlani G, Martinetti G, Reinholz D, Paolucci S, Baldanti F et al. (2020) Outbreak of hepatitis C virus infections originating from a breach in safe injection practices before contrast-enhanced computed tomography scanning. J Hosp Infect 600–604.

  29. Sarvananthan P, Lin C, Jorjany T (2021) Rates and reasons for safety incident reporting in the medical imaging department of a large academic health sciences centre. J Med Imaging Radiat Sci 52:86–96

    Article  PubMed  Google Scholar 

  30. Yu J, Ding N, Chen H et al (2021) Loopholes in current infection control and prevention practices against Covid-19 in Radiology department and improvement suggestions. Health Policy Pract 72:215–221

    Google Scholar 

  31. Kord A, Rabiee B, Wang S, Rostami S, Gaba RC, Xie KL (2020) A concise review and required precautions for COVID-19 outbreak in diagnostic and interventional radiology. Radiol Res Prac 7159091

  32. Mizra SK, Tragon TR, Fukui MB, Hartman MS, Hartman AL (2015) Microbiology for radiologists: how to minimise infection transmission in the radiology department. Radiographics 35:1231–1244

    Article  Google Scholar 

  33. Stogiannos N, Fotopoulos D, Woznitza N, Malamateniou C (2020) Covid-19 in the radiology department: what radiographers need to know? Radiography 26:254–263

    Article  CAS  PubMed  Google Scholar 

  34. Tay YX, Kothan S, Kada S, Cai S, Lai CWK (2021) Challenges and optimization strategies in medical imaging service delivery during Covid-19. World J Radiol 13(5):102–121

    Article  PubMed  PubMed Central  Google Scholar 

  35. Dominik RH, Ingebord S, Taenzer V (1995) Risk of microbial contamination of iodinated contrast media on multiple use of large-volume bottles. Eur J Radiol 19:198–205

    Article  CAS  PubMed  Google Scholar 

  36. Gretzinger DTK, Cafazzo JA, Ratner J, Conly JM, Easty AC (1996) Validating the integrity of one-way check valves for the delivery of contrast solution to multiple patients. J Clin Engineering 21(5):375–382

    Article  CAS  Google Scholar 

  37. Buerke B, Sonntag AK, Fischbach R, Heindel W, Tombach B (2004) Automatic injectors in magnetic resonance imaging and computed tomography: pilot study on hygienic aspects. Rofo 176(12):1832–1836

    Article  CAS  PubMed  Google Scholar 

  38. Buerke B, Mellmann A, Stehling C, Wessling J, Heindel W, Juergen KU (2008) Microbial contamination of automatic injectors at MDCT: Experimental and clinical investigations. AJR Am J Roentgenol 191:W283–W287

    Article  PubMed  Google Scholar 

  39. Fox M, Harvey JM (2008) An investigation of infection control for x-ray cassettes in a diagnostic imaging department. Radiography 14:306–311

    Article  Google Scholar 

  40. Boyle H, Strudwick RM (2010) Do lead rubber aprons pose an infection risk? Radiography 16:297–303

    Article  Google Scholar 

  41. Buerke B, Puesken M, Mellmann A, Seifarth H, Heindel W, Wessling J (2010) Microbiologic contamination and time efficiency of use of automatic MDCT injectors with prefilled syringes: results of a clinical investigation. AJR Am J Roentgenol 299–303.

  42. Aso M, Kato K, Yasuda M et al (2011) Hand hygiene during mobile X-ray imaging in the emergency room. Nihon Hoshasen Gijutsu Gakkai Zasshi 67(7):793–799

    Article  PubMed  Google Scholar 

  43. Buerke B, Puesken M, Mellmann A, Schuelke C, Knauer A, Heindel W, et al. (2011) Automatic MDCT injectors: hygiene and efficiency of disposable, prefilled, and multidosing roller pump systems. Am J Roentgenol W226-W232.

  44. Shelly MJ, Scanlon TG, Ruddy R, Hannan MM, Murray JG (2011) Methicillin-resistant Staphylococcus aureus (MRSA) environmental contamination in a radiology department. Clin Radiol 66:861–864

    Article  CAS  PubMed  Google Scholar 

  45. Cona MM, Bauwens M, Zheng Y et al (2012) Study on the microbial safety of an infusion set for contrast-enhanced imaging. Invest Radiol 47:247–251

    Article  PubMed  Google Scholar 

  46. Duszak R, Lanier B, Tubbs JA, Ogilvie M, Thomson-Jaeger S (2014) Bacterial contamination of radiologist workstations: results of a pilot study. J Am Coll Radiol 11:176–179

    Article  PubMed  Google Scholar 

  47. Giacometti M, Gualano MR, Bert F et al (2014) Microbiological contamination of radiologic equipment. Acta Radiol 55:1099–1103

    Article  CAS  PubMed  Google Scholar 

  48. Antwi W, Adesi K, Gawugah J, Opoku SY, Arthur L, Baah G (2015) Infection control by radiographers during radiological examinations in Ghana. World J Med Res 4:2

    Google Scholar 

  49. O’Donoghue M, Ng SH, Suen LKP, Boost M (2016) A quasi-experimental study to determine the effects of a multifaceted educational intervention on hand hygiene compliance in a radiography unit. Antimicrobial Resist Infection Control 5:36

    Article  Google Scholar 

  50. Abdelrahman MA, Alhasan M, Alewaidat H, Rawashdeh MA, Al Mousa DS, Almhdawi KA (2017) Knowledge of nosocomial infection control practices among radiographers in Jordan. Radiography 23:298–304

    Article  CAS  PubMed  Google Scholar 

  51. Cabrita DFS, Ribeiro LPV, Abrantes AF, Almeida RPP, Rodrigues S, Ribeiro AM, et al. (2017) Radiographers perception about infection control measures during CT examinations. European Society of Radiographers Poster C-2108.

  52. Nandy P, Young M, Haugen SP et al (2017) Evaluation of one-way valves used in medical devices for prevention of cross contamination. Am J Infection Control 45:793–798

    Article  Google Scholar 

  53. Quon JS, Dilauro M, Ryan JG (2017) Disinfection of the radiologist workstation and radiologist hand hygiene: a single institution practice quality improvement project. Can Ass Radiologists J 68:270–275

    Article  Google Scholar 

  54. Crofton CC, Foley SJ (2018) An investigation of radiographers’ mobile phone use and the success of an awareness campaign at reducing the nosocomial infection risks. Radiography 24:57–63

    Article  CAS  PubMed  Google Scholar 

  55. Nyirenda D, Ten Ham-Baloyi W, Williams R, Venter D (2018) Knowledge and practices of radiographers regarding infection control in radiology departments in Malawi. Radiography 24:e56–e60

    Article  CAS  PubMed  Google Scholar 

  56. Goebel J, Steinmann J, Heintschel von Heinegg E, Hestermann T, Nassenstein K (2019) Bacterial contamination of automated MRI contrast injectors in clinical routine. GMS Hygiene Infection Control 14:1–7

    Google Scholar 

  57. Alakhras M, Al-Mousa DS, Mahasneh A, AlSa’di AG (2020) Factors affecting compliance of infection control measures among dental radiographers. Int J Dentistry 8834854.

  58. Hasford F, Sosu EK, Awua AK, Rockson P, Hammond ENB (2021) Knowledge and perception on the transmission and control of SARS-COV-2 infection among allied radiation medicine professionals in Ghana. Health Technol 11:119–126

    Article  Google Scholar 

  59. Aljondi R, Alghamdi SS, Abdelaziz I et al (2021) Knowledge of COVID-19 infection control among healthcare workers in radiology departments in Saudi Arabia. J Rad Res App Sc 14:51–60

    CAS  Google Scholar 

  60. Almatari M, Alghamdi A, Alamri S et al (2021) Measuring awareness of infection control guidelines for patients with COVID-19 in radiology departments in Saudi Arabia. Med Sci 9:18

    CAS  Google Scholar 

  61. Carotenuto G, Brewer-Hofmann A, Zech JR et al (2021) Identifying factors important to patients for resuming elective imaging during the COVID-19 pandemic. J Am Coll Radiol 18:590–600

    Article  PubMed  Google Scholar 

  62. Elshami W, Akudjedu TN, Abuzaid M et al (2021) The radiology workforce’s response to the COVID-19 pandemic in the Middle East, North Africa and India. Radiography 27:360–368

    Article  CAS  PubMed  Google Scholar 

  63. Fohely F, Oglat A, Sabarna K (2021) Practices among radiological technologists (Radiographers) in Palestine. J Radiol Nurs 40:194–198

    Article  Google Scholar 

  64. Srivastava S, Rai PV, Jain A, Shenoy S (2021) Perception and practice regarding infection control measures in radiology department during pre-Covid and Covid times—a survey among radiologists and a review of current concepts and literature. Indian J Radiol Imaging 31:S139–S147

    Article  PubMed  PubMed Central  Google Scholar 

  65. WHO Guidelines on Hand Hygiene in Health Care: First Global Patient Safety Challenge Clean Care Is Safer Care. Geneva: World Health Organization; 2009. 18, Behavioural considerations.

  66. Lotfinejad N, Peters A, Tartari E, Fankhauser-Rodriguez C, Pires D, Pittet D (2021) Hand hygiene in health care: 20 years of ongoing advances and perspectives. Lancet Infect Dis 21:e209–e221

    Article  PubMed  Google Scholar 

  67. Cochon L, Lacson R, Wang A et al (2018) Assessing information sources to elucidate diagnostic process errors in radiologic imaging—a human factors framework. J Am Med Inform Ass 25(11):1507–1515

    Article  Google Scholar 

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This research was commissioned by funding from Imaxeon PTY LTD (Australia). The views expressed in this publication are those of the authors and not necessarily those of Imaxeon PTY LTD (Australia). The funding body was not involved in interpretation of data or writing of the manuscript.

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YJ performed database search, independently reviewed the literature, and wrote first version of the manuscript. SL independently reviewed the literature and reviewed the manuscript. All authors approved the final manuscript.

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Jimenez, Y.A., Lewis, S.J. Infection prevention and control in the medical imaging environment: a scoping review. Insights Imaging 14, 121 (2023).

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  • Infection prevention and control
  • Medical imaging
  • SEIPS framework
  • Radiology
  • Computed tomography