Ultrasound Training Research Articles

A novel step-by-step teaching method improves training outcomes in transvaginal ultrasound for postgraduate reproductive medicine students: an exploratory randomized controlled study

BackgroundTraditional methods of training in ultrasound technology make it difficult for postgraduate reproductive medicine students to rapidly develop into doctors who can perform clinical examinations independently. It is necessary to explore an efficient method for ultrasound training. The purpose of this study was to investigate whether the step-by-step (SBS) teaching improves the ultrasound diagnosis and clinical work level of reproductive medicine graduate students.MethodsA total of fifty postgraduate reproductive medicine students who participated in ultrasound room training were selected at random and divided into two groups: a traditional teaching control group and a stepwise teaching experimental group. A comparison was subsequently conducted between the two groups in terms of theoretical level, skill operation, comprehensive ability and teaching evaluation.ResultsIn terms of theory, skills, and comprehensive assessment, the experimental group exhibited superior performance compared to the control group (P < 0.05). The experimental group rated the instructors’ teaching ability and methods significantly better than did the control group (P < 0.05). The experimental group’s overall satisfaction with the training was better than that of the control group, but the difference was not statistically significant (P > 0.05).ConclusionsThe stepped teaching model has the potential to facilitate the acquisition of clinical ultrasound detection and diagnostic techniques by postgraduate reproductive medicine students, thereby enhancing their overall competence and satisfaction with the teaching process.

Remote out-of-hours ultrasound live supervision in pediatrics - improvement of diagnostics and training.

Ultrasound (US) is the preferred imaging modality in pediatrics for diagnostic and therapeutic issues. The absence of radiation and the constant on-site accessibility make it the ideal tool for children. However, despite remarkable technical advances in resolution and applicability, many sophisticated medical questions still require profound expertise on the part of the examiner, thus often hampering fast decisions particularly outside regular working hours. This single-center study, at a university children's hospital evaluated the use of US during emergency service. A four-week documentation period was followed by a subsequent eight-week supervision period with live supervision availability on demand guided by a remote US expert. The demand for expert support, diagnosis, grading of urgency, duration and success of examination, and satisfaction of both examiners were analyzed. 108 patients (mean age 9.7 years) were included. In 38% of cases, US was supervised on demand with a definite diagnosis in 92.6% of cases (25/27). Image quality and technical performance were graded sufficient in 100% of cases. Supervised compared to non-supervised US examinations were prolonged (14.4 min vs. 7.1 min, p<0.001), were more prevalent within the first 24 h in the hospital (70% vs. 56.8%, p=0.06), and were classified more frequently as emergency (22.2% vs. 2.3%; p=0.015). All participants classified the availability of US supervision as decisively helpful. Remote live supervised pediatric US was feasible and effective. It combined timely, high-quality diagnostics even in the case of challenging medical questions with simultaneous US training.

Reflections on critical care ultrasound training: clinical analysis, protocol, view, approach and practice-workflow (CPVAP) modular training and base training model

Reflections on critical care ultrasound training: clinical analysis, protocol, view, approach and practice-workflow (CPVAP) modular training and base training model

Using Four-Component Instructional Design to Create an Interactive Point-of-Care Ultrasound Curriculum for Physician Associate Students.

Many physician assistant/associate (PA) programs lack point-of-care ultrasound (POCUS) education in the PA curricula and a standardized approach to ultrasound training. The four-component instructional design (4C/ID) model merges 4 concepts for developing effective instructional design content for complex content delivery, such as ultrasound. This research study created an interactive, 2-part ultrasound curriculum with an instructional designer for PA students using the 4C/ID model. Two interactive ultrasound curriculum models were created from the 4C/ID model using a knowledge-based precurriculum quiz, learning tasks with online modules and recordings, part-task practice with ultrasound experts, skills checkoffs, and a postcurriculum quiz including questions on students' perspectives of ultrasound. Two-tailed paired t-test analysis assessed the effectiveness of training. Evaluation of prelearning and postlearning quizzes demonstrated multiple statistically significant assessments supporting the use of instructional design technology for a PA program's ultrasound curriculum. This small study demonstrated that the 4C/ID model may be beneficial for PA POCUS training. The 2-part interactive curriculum improved PA student competency of ultrasound principles and applications and increased confidence for future clinical use of ultrasound.

Tele-education in point-of-care ultrasound training

BackgroundTraditionally, ultrasound skills have been taught through a one-on-one approach, where instructors physically guide learners’ hands at the bedside or in the workshop. However, this method is frequently challenged by scheduling and cost limitations. Our objective was to create a tele-education model for point-of-care ultrasound training and evaluate its effectiveness and its impact on learners’ perceived workload compared to conventional education and self-directed learning methods.MethodsWe conducted a 3-arm randomized trial, comparing tele-education (TE), conventional education (CE) and self-directed learning (SL) methods. All subjects underwent online didactic lectures prior to a hands-on ultrasound workshop. The TE group utilized an ultrasound machine equipped with a speakerphone, a webcam for direct visualization of learner’s hand maneuvers, and an analog-to-video converter for the real-time streaming of ultrasound images. This configuration enabled remote instructors to provide immediate verbal feedback to learners. In contrast, the CE group received in-person coaching, while the SL group had no instructors present. Following the coaching session, subjects completed a scenario-based skill test and a survey on the National Aeronautics and Space Administration task load index (NASA-TLX) to measure their ultrasound competency and perceived workload, respectively.ResultsTwenty-seven ultrasound novices were randomly allocated into 3 groups. The median skill test score of TE, CE, and SL was 22 [interquartile range (IQR): 18–28], 24 [IQR: 21–31], and 16 [IQR: 15–18], respectively (p < 0.01). Pairwise comparisons of median test scores of 3 groups demonstrated a statistical significance in comparisons of TE vs. SL (22 vs. 16, p = 0.01) and CE vs. SL (24 vs. 16, p < 0.01), but not in TE vs. CE (22 vs. 24, p = 0.56). There was no statistical significance observed in the median NASA-TLX scores among the 3 groups; 54 [IQR:47–61] in TE, 57 [IQR:22–64] in CE, and 66 [IQR: 66–72] in SL (p = 0.05).ConclusionsOur tele-education model was more effective than self-directed learning. There was no statistically significant difference in effectiveness between the tele-education and the conventional education groups. Importantly, tele-education did not impose a significantly higher workload on learners compared to conventional education or self-directed learning. Tele-education has a substantial potential as an alternative to conventional ultrasound training.

Artificial intelligence-assisted focused cardiac ultrasound training: A survey among undergraduate medical students

Objectives: Focused cardiac ultrasound (FoCUS) is increasingly applied in many specialities, and adequate education and training of physicians is therefore mandatory. This study aimed to assess the impact of artificial intelligence (AI)-assisted interactive focused cardiac ultrasound (FoCUS) teaching session on undergraduate medical students’ confidence level and knowledge in cardiac ultrasound. Methods: The AI-assisted interactive FoCUS teaching session was held during the 9th National Undergraduate Cardiovascular Conference in London in March 2023 and all undergraduate medical students were invited to attend, and 79 students enrolled and attended the training. Two workshops were conducted each over 3-hour period. Each workshop consisted of a theoretical lecture followed by a supervised hands-on session by experts, first workshop trained 39 students and the second workshop trained 40 students. The students’ pre- and post-session knowledge and confidence levels were assessed by Likert-type-scale questionnaires filled in by the students before and immediately after the workshop. Results: A total of 61 pre-session and 52 post-session questionnaires were completed. Confidence level in ultrasound skills increased significantly for all six domains after the workshop, with the greatest improvement seen in obtaining basic cardiac views (p &lt; 0.001 for all six domains). Students strongly agreed about the effectiveness of the teaching session and supported the integration of ultrasound training into their medical curriculum. Conclusions: AI-assisted interactive FoCUS training can be an effective and powerful tool to increase ultrasound skills and confidence levels of undergraduate medical students. Integration of such ultrasound courses into the medical curriculum should therefore be considered.

G.O.O.S.E.: Introducing a novel five‐stage structured framework for the early phases of teaching and learning ultrasound

AbstractThe sonography profession faces a critical global workforce shortage, particularly pronounced in Australia, due to insufficient clinical training opportunities and an ageing workforce. The financial burden and increased scan times associated with training exacerbate this issue. Innovative approaches, such as intensive ultrasound courses and pair scanning protocols, have shown promise in addressing these challenges. The GOOSE framework (Get the window, Optimise the view, Optimise the image, Select the image, Explain the findings) offers a structured, step‐by‐step approach to practical sonography training. This framework deconstructs complex ultrasound skills into manageable tasks, optimises cognitive load management, and provides explicit guidance for novice learners. The GOOSE framework is designed to enhance the efficiency of teaching and learning by simplifying complex skills into clear, actionable steps, supported by checklists that guide both instructors and students through the training process. The GOOSE framework offers a systematisation of knowledge transfer that, combined with deliberate practice and structured feedback, ensures learners progressively build their skills with focused, goal‐directed activities. While this model is yet to be validated, initial implementations have shown promising results in improving trainee performance, reducing supervision workload, and standardising instructional methods. This article outlines the principles of the GOOSE framework, its development, and its application in a specialised training facility, proposing it as a standardised model to enhance practical ultrasound education and improve teaching and learning efficiency.

Pioneering point-of-care obstetric ultrasound integration in midwifery education – the MEPOCUS study

BackgroundUltrasound technology is indispensable in perinatal care due to its non-invasive and painless nature, offering vital insights into foetal development and childbirth. With the academisation of midwifery in Germany, there is a growing necessity to incorporate ultrasound training into midwifery education. This paper discusses the development and implementation of an introductory obstetric ultrasound curriculum tailored for midwifery students, focusing on fundamental ultrasound techniques in obstetrics.Materials and methodsWe used Kern’s six-step approach of curricular development comprising [1] problem identification and general needs assessment [2], needs assessment of the targeted learners [3], goals and objectives [4], educational strategies [5], implementation, and [6] evaluation and feedback. The individual components of the curriculum were meticulously designed based on comprehensive literature reviews, thorough consultations with experienced ultrasound experts and evaluated needs of participants prior to the course instruction.ResultsTwenty-seven ultrasound-naive midwifery students participated in the newly developed obstetric ultrasound course. Structured as a modular and integrated framework, the course aimed to provide theoretical and practical instruction in basic obstetric ultrasound, with intrapartum sonography and focused assessment with abdominal sonography for trauma (FAST) as key supplementary specialisations. The results demonstrated a significant increase in the students’ overall knowledge and practical skills, as evidenced by the median post-course total score rising from 20 to 60 out of 75 (p < 0.001) in the objective structured clinical examination (OSCE) and from 9 to 19 out of 20 (p = 0.001) in the knowledge test. Additionally, students reported high satisfaction with the course and noted substantial personal benefits.ConclusionThe integration of basic obstetric ultrasound training within the midwifery curriculum is feasible and effective to teach fundamental knowledge and skills of obstetric ultrasound examinations to midwifery students. Expansion, standardisation and regulatory structures are critical components for a continued improvement and realistic integration into midwifery educational frameworks and thus the further development of the midwifery profession.

Undergraduate musculoskeletal ultrasound training based on current national guidelines—a prospective controlled study on transferability

IntroductionMusculoskeletal ultrasound (MSUS) is integral to routine clinical diagnostics for musculoskeletal and joint disorders. This study aims to establish and validate a sonography course tailored to undergraduate medical students acquiring MSUS-specific skills at a German university.MethodsA blended learning training concept, comprising 24 instruction sessions of 45 min each, was designed based on the current national guidelines of the German Society for Ultrasound in Medicine (DEGUM). This program was integrated into the clinical phase of the undergraduate students’ medical education. The self-perceived improvement in competency and the effectiveness of the course design were evaluated using a a 7-point Likert scale questionnaire. Objective learning success was evaluated via a written test and a “Direct Observation of Practical Skills” practical exam. Control groups included medical students without MSUS training (control group 1) and doctors who had completed DEGUM-certified basic MSUS courses (control group 2). Both control groups completed the written test, while control group 2 also took the practical final exam. The study involved 146 participants: 56 were allocated to the study group, 44 to control group 1, and 46 to control group 2.ResultsThe study group rated their skills significantly higher after the course (p < 0.01). Participants expressed high satisfaction with the course design, the teaching materials, and the teachers. The study group's performance on the final written test was comparable to those of control group 2 (p = 0.06) and significantly superior to control group 1 (p < 0.001). Additionally, the study group’s performance on the practical final exam was not significantly different from control group 2 (p = 0.28), with both groups achieving scores exceeding 80%.ConclusionBoth subjective and objective measures of learning suggest that an MSUS course designed for postgraduates can be effectively adapted for undergraduate medical students. Incorporating MSUS training into the clinical curriculum is recommended to enhance future medical professionals' educational experience and practical skills.

Dynamic sequential cross-sectional scanning increases detection rate of congenital heart disease in sonographers: a prenatal ultrasound training program

BackgroundPrenatal ultrasound is the preferred modality for diagnosing fetal congenital heart disease. Given issues of physician proficiency and hospital distribution, we propose a dynamic sequential cross-sectional scanning (SCS) to explore the feasibility of cardiac screening by sonographers with less than 5 years of experience in ultrasound.Materials and methodsTwenty residents were randomly divided into two groups, receiving training in the American Institute of Ultrasound in Medicine (AIUM) fetal echocardiography and the SCS method. According to the needs of training, the professional staff developed the theoretical knowledge question bank, the CHD ultrasonic video disease bank, and the assessment scale. Trainees completed the pre-training examination, theory and skill operation training, and post-training assessment. For the two groups, the theoretical knowledge, skill operation and disease diagnosis were analyzed statistically before and after training.ResultsAfter training, the trainees in both groups had significantly improved knowledge and diagnostic abilities, their diagnostic thinking about CHD was clear, and they could identify major or even all structural abnormalities and make a definite diagnosis. In terms of skill operation, both groups could complete all required scanning within the specified time. The scanning time of the SCS group was significantly lower than that of the AIUM group, and the effect of the receptor site in the AIUM group was significantly higher than that in the SCS group.ConclusionSCS can be used as a new rapid fetal cardiac scanning method and try to popularize among echocardiographer.

Systematic review of musculoskeletal ultrasound learning methodologies

AbstractIntroduction/PurposeAs the frequency and morbidity of musculoskeletal (MSK) disorders increase, the use of MSK ultrasound has become an important diagnostic and procedural tool. This has amplified the importance of quality MSK ultrasound training for medical professionals. This systematic review evaluated and compared peer‐reviewed journal articles on learning methodologies for MSK ultrasound training.MethodsThirty‐three articles met inclusion and exclusion criteria and were evaluated.ResultsResults showed a lack of randomised studies that compared learning methodologies.ConclusionThere was wide variability of methodology used based on educational and institutional needs. Further randomised control trials need to be conducted to ascertain best educational practices.

Bag of Feature-Based Ensemble Subspace KNN Classifier in Muscle Ultrasound Diagnosis of Diabetic Peripheral Neuropathy

Muscle ultrasound quantification is a valuable complementary diagnostic tool for diabetic peripheral neuropathy (DPN), enhancing physicians’ diagnostic capabilities. Quantitative assessment is generally regarded as more reliable and sensitive than visual evaluation, which often necessitates specialized expertise. This work develops a computer-aided diagnostic (CAD) system based on muscle ultrasound that integrates the bag of features (BOF) and an ensemble subspace k-nearest neighbor (KNN) algorithm for DPN detection. The BOF creates a histogram of visual word occurrences to represent the muscle ultrasound images and trains an ensemble classifier through cross-validation, determining optimal parameters to improve classification accuracy for the ensemble diagnosis system. The dataset includes ultrasound images of six muscles from 53 subjects, consisting of 27 control and 26 patient cases. An empirical analysis was conducted for each binary classifier based on muscle type to select the best vocabulary tree properties or K values for BOF. The result indicates that ensemble subspace KNN classification, based on the bag of features, achieved an accuracy of 97.23%. CAD systems can effectively diagnose muscle pathology, thereby addressing limitations and identifying issues in individuals with diabetes. This research underscores muscle ultrasound as a promising diagnostic tool to aid physicians in making accurate diagnoses, streamlining workflow, and uncovering muscle-related complications in DPN patients.

Innovations in ultrasound training in obstetrics.

Ultrasound technology is critical in obstetrics, enabling detailed examination of the fetus and maternal anatomy. However, increasing complexity demands specialised training to maximise its potential. This study explores innovative approaches to ultrasound training in obstetrics, focussing on enhancing diagnostic skills and patient safety. This review examines recent innovations in ultrasound training, including competency-based medical education (CBME), simulation technologies, technology-based resources, artificial intelligence (AI), and online-learning platforms. Traditional training methods such as theoretical learning, practical experience, and peer learning are also discussed to provide a comprehensive view of current practises. Innovations in ultrasound training include the use of high-fidelity simulators, virtual reality (VR), augmented reality (AR), and hybrid-learning platforms. Simulation technologies offer reproducibility, risk-free learning, diverse scenarios, and immediate feedback. AI and machine learning facilitate personalised-learning paths, real-time feedback, and automated-image analysis. Online-learning platforms and e-learning methods provide flexible, accessible, and cost-effective education. Gamification enhances learning motivation and engagement through educational games and virtual competitions. The integration of innovative technologies in ultrasound training significantly improves diagnostic skills, learner confidence, and patient safety. However, challenges such as high costs, the need for comprehensive instructor training, and integration into existing programs must be addressed. Standardisation and certification ensure high-quality and consistent training. Future developments in AI, VR, and 3D printing promise further advancements in ultrasound education. Innovations in ultrasound training in obstetrics offer significant improvements in medical education and patient care. The successful implementation and continuous development of these technologies are crucial to meet the growing demands of modern obstetrics.

Point-of-Care Ultrasound for the General Pediatric Resident: A Needs Assessment.

Point-of-care ultrasound (POCUS) is a valuable tool in pediatric care, but formalized education on POCUS is not a standard part of pediatric residency. Our primary objective was to conduct a needs assessment to determine pediatric residents' attitudes toward ultrasound education. A Likert scale-based survey was distributed to residents at 48 pediatric residency programs. Respondents were asked to rate their agreement to statements about ultrasound education at their respective programs. Participants were also asked to rank ultrasound indications in order of importance. Ninety-seven survey responses were included in the final data set. Sixty percent of respondents had not performed any ultrasound scans during residency. Ninety-two percent of respondents indicated an interest in ultrasound training during residency and that they desired a formal POCUS curriculum. Eighty-one percent of residents indicated that having more ultrasound education would make their programs more attractive to applicants. Pediatric residents recognize the utility of POCUS and desire additional education during training.

Novel Method of Measuring Pelvic Floor Muscle Motion May Improve Accessibility of Pelvic Floor Muscle Coordination Training.

Pelvic floor muscle ultrasound is an important clinical tool for improving motor coordination and even strength. Although the gold standard approach involves transperineal probe placement, this is not always feasible with sensitive populations, requires privacy owing to probe placement, and additional sonography training. This article introduces a novel transabdominal method for measuring pelvic floor muscle motion that incorporates a reference point within the bladder. The hypothesis is that the novel measurement will correlate positively with transperineal measurements. A total of 55 women (15 nulliparous, 40 parous; 20 continent, 35 incontinent) performed pelvic floor muscle contraction and strain. Transabdominal ultrasound measured bladder diagonal length (BDL) and transperineal ultrasound measured bladder neck height (BNH), levator plate length (LPL), and levator plate angle (LPA). Spearman's test measured the correlation between the measurement outcomes and an independent t test compared outcomes based on parity and stress urinary incontinence symptom status. Spearman's correlation showed moderate positive correlations between the pelvic floor measurements for both tasks, which reduced slightly when grouping by parity and symptom status. Group differences were significant for BDL during the muscle contraction, factoring in SUI symptoms (p = 0.019) and parity status (p = 0.005) and LPL during contraction, factoring in parity status (p = 0.033). BDL correlates with BNH, LPL, and LPA with slightly reduced correlation when factoring in parity and continence status. The advantages of the method include accessibility for sensitive populations, nontraditional positions due to the anatomical reference point, functional locations due to limited privacy needs, and minimal training required for pelvic floor therapists to incorporate into rehabilitation.

Bedside 3D ultrasound fistula maturation assessment by non-expert sonographers provides equivalent accuracy to formal duplex sonography: A prospective clinical trial.

EchoSure is an automated point-of-care 3D ultrasound (3DUS) designed to be used by dialysis technicians without advanced ultrasound training. The EchoMark/EchoSure System is a two-part system comprised of a bioresorbable implant, EchoMark, and a diagnostic ultrasound imaging platform, EchoSure. EchoSure was designed to enable any healthcare personnel in a dialysis clinic setting to obtain non-invasive, direct measurements of flow and vessel parameters that are critical quantifications used in the assessment of AVF maturation and readiness for hemodialysis cannulation. In this pilot feasibility study, we sought to explore whether use of an automated 3DUS could enable fistula assessment by non-experts and obtain measurement accuracy comparable to expert sonographer Duplex. This was a 20 subject prospective multicenter trial conducted at four sites in the United States. All subjects had an EchoMark implanted under their AVF during the fistula creation procedure. Subjects were evaluated at 2-weeks post-op with EchoSure and Duplex, followed by monthly assessments until either the 4-month visit or until radiographic maturation was achieved, whichever was longer. Beyond monthly ultrasound assessments, clinical follow-up continued every 6 months between months 6 and 24. Technical success of EchoMark implantation was demonstrated in 100% of subjects. Technical success of EchoSure was 99% across all scans. The mean percent difference in flow rate measurements between EchoSure and Duplex was -9.2% with a standard deviation of 38.1% compared to a mean percent difference of -15.7% with a standard deviation of 35.5% between Duplex measurements taken at the cannulation zone and brachial artery. Pearson correlation between EchoSure and Duplex was 0.708 versus 0.716 for the two Duplex measurements. Radiographic maturation was achieved in 70% of study subjects by 30 days and continued to rise to 90% through 90 days and 95% through 180 days after baseline. This study demonstrates the feasibility and accuracy of an automated 3D ultrasound system for assessment of maturation at the dialysis bedside by non sonographers.

The Effects of an Eight-Hour Six-Step Point-of-Care Ultrasound (PoCUS) Training Program: A Pilot Study

The Effects of an Eight-Hour Six-Step Point-of-Care Ultrasound (PoCUS) Training Program: A Pilot Study

The Application of Case-Based Learning (CBL) Combined with PDCA Cycle in the Clinical Teaching Practice of Breast Ultrasound in Standardized Residency Training

Background: The integration of case-based learning (CBL) with the plan-do-check-act (PDCA) cycle has potential benefits for clinical education, yet its efficacy in ultrasound residency training, particularly for breast ultrasound, requires evaluation. Aim: This study aimed to assess the impact of a combined CBL and PDCA cycle teaching model on the clinical thinking and skills of ultrasound residents compared to traditional teaching methods. Methods: A comparative study was conducted at Sichuan Provincial People’s Hospital’s ultrasound medicine base, from August 2020 to June 2023, focusing on residents in training. Sixty-one trainees were randomly divided into two groups: a joint group (n = 31) taught using a PDCA cycle-based model integrated with CBL and a traditional group (n = 30) taught with conventional methods. Both groups underwent a 20-hour course and were subsequently evaluated on theoretical knowledge, clinical thinking, and skills. Comparative statistical analysis was performed to evaluate the performance differences between the two groups. Results: The joint group demonstrated significantly better clinical thinking and skills operation than the traditional group (P &lt; 0.05). No significant difference was observed between the groups regarding theoretical knowledge (P &gt; 0.05). Conclusions: The combined CBL-PDCA cycle teaching mode significantly enhances the clinical thinking abilities and operational skills of residents in breast ultrasound training. This innovative approach shows promise as an effective educational strategy to foster intrinsic motivation and higher order learning capabilities among ultrasound residents.

474 The Impact of Prehospital Ultrasound Training on Paramedic Simulated Clinical Decision Making

474 The Impact of Prehospital Ultrasound Training on Paramedic Simulated Clinical Decision Making

Diagnosis of suspected pediatric distal forearm fractures with point-of-care-ultrasound (POCUS) by pediatric orthopedic surgeons after minimal training

BackgroundSeveral studies have advocated the use of ultrasound to diagnose distal forearm fractures in children. However, there is limited data on the diagnostic accuracy of ultrasound for distal forearm fractures when conducted by pediatric surgeons or trainees who manage orthopedic injuries in children. The objective of this study was to determine the diagnostic accuracy of point-of-care ultrasound (POCUS) for pediatric distal forearm fractures when conducted by pediatric surgeons and trainees after minimal training.MethodsThis diagnostic study was conducted in a tertiary hospital emergency department in Germany. Participants were children and adolescents under 15 years of age who presented to the emergency department with an acute, suspected, isolated distal forearm fracture requiring imaging. Pediatric surgeons and trainees, after minimal training for sonographic fracture diagnosis, performed 6-view distal forearm POCUS on each participant prior to X-ray imaging. All data was retrospectively collected from the hospital’s routine digital patient files. The primary outcome was the diagnostic accuracy of POCUS compared to X-ray as the reference standard.ResultsFrom February to June 2021, 146 children under 15 met all inclusion and exclusion criteria, and 106 data sets were available for analysis. Regarding the presence of a fracture, X-ray and Wrist-POCUS showed the same result in 99.1%, with 83/106 (78.3%) fractures detected in both modalities and one suspected buckle fracture on POCUS not confirmed in the radiographs. Wrist-POCUS had a sensitivity of 100% (95% CI [0.956, 1]) and a specificity of 95.8% (95% CI [0.789, 0.999]) compared to radiographs. In 6 cases, there were minor differences regarding a concomitant ulnar buckle. The amount of prior ultrasound training had no influence on the accuracy of Wrist-POCUS for diagnosing distal forearm fractures. All fractures were reliably diagnosed even when captured POCUS images did not meet all quality criteria.ConclusionPediatric surgeons and trainees, after minimal training in POCUS, had excellent diagnostic accuracy for distal forearm fractures in children and adolescents using POCUS compared to X-ray.