This program reviews fundamental MRI safety information and meets the annual training recommendations from the American College of Radiology. Importantly, MRI facilities must now comply with the revised requirements for diagnostic imaging from The Joint Commission and document that MRI technologists participate in ongoing education that includes annual training on safe MRI practices in the MRI environment. Notably, Advanced MRI Safety Training for Healthcare Professionals, Level 2 MR Personnel covers each MRI safety topic specified by The Joint Commission, as well as many additional subjects that will expand the knowledge-base of healthcare professionals involved with MRI technology.

With 35 years of experience in the field of MRI, the author of the best-selling textbook series, the Reference Manual for Magnetic Resonance Safety, Implants and Devices, and the creator of the internationally popular website, MRIsafety.com, Dr. Frank G. Shellock is uniquely qualified to present the information in this program.

Advanced MRI Safety Training for Healthcare Professionals (4th Edition), Level 2 MR Personnel is a 2 hour and 45 minute program that is divided into three different sections.

Educational Objectives

• Understand the safety issues related to MRI.
• Describe the bioeffects associated with the static magnetic field, time-varying magnetic fields, and radiofrequency fields.
• Present guidelines that prevent projectile-related accidents.
• Describe polices that avoid issues related to acoustic noise.
• Review procedures that prevent burns associated with MRI.
• Explain and demonstrate appropriate pre-MRI screening procedures.
• Identify techniques to manage patients with claustrophobia, anxiety, or emotional distress.
• Describe guidelines to handle medical emergencies in the MRI setting.
• Understand the safety considerations for gadolinium-based contrast agents.

This is a Pay-To-View program. Purchase is required for full program access.

Applied Radiology and William Faulkner & Associates are pleased to introduce “The Online Course for MR Safety Officers (MRSO) and MR Medical Directors (MRMD)”. This comprehensive program, focusing on MR Safety, covers many aspects relating to the safety practices of the Magnetic Resonance Imaging (MRI) environment. It is designed for those individuals who are either currently serving as their facility’s MRSO and/or MRMD, or those who are preparing to assume these responsibilities. The content of this course will be helpful for those preparing for the American Board of Magnetic Resonance Safety MRSO and MRMD examinations.

The content of The Online Course for MR Safety Officers and MR Medical Directors is based upon current FDA and ACR guidelines, including the ACR Guidance Document for MR Safe Practices, as well as those promulgated by industry regulatory bodies such as the International Electrotechnical Commission.

The complete online program has been approved for up to 10 AMA PRA Category 1 credits™ (CME) and 10 Category A ARRT continuing educational credits (CE).

The Online Course for MR Safety Officers (MRSO) and MR Medical Directors (MRMD) is not affiliated with, nor endorsed by the American Board of Magnetic Resonance Safety (ABMRS)
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This is a Pay-To-View program. Purchase is required for full program access.

Praveen Pendyala, MD; Alexander G. Goglia, MD, PhD; Ronald D. Ennis, MD

The authors review the rationale behind the establishment of prior authorization (PA) by health care payers, discuss issues with the current system with a focus on radiation oncology, and propose multiple changes that could improve the system for clinicians, payers, and patients.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Pegah Khoshpouri, MD; Mahdie Hosseini, MD; Arya M Iranmanesh, MD; Bahar Mansoori, MD; Arash Bedayat, MD; Holman P McAdams, MD; Hamid Chalian, MD

There are several acquired diseases involving the pericardium. The clinical signs and symptoms of most of the pericardial disease are similar. This underscores the importance of medical imaging in identification of specific pericardial diseases.

Unfortunately, there are also similarities between the imaging features of several pericardial diseases. Therefore, familiarity with imaging features of different pericardial diseases is very important in the proper management of these patients. It is also of great importance that radiologists understand the clinical significance and management of different pericardial diseases so that they can better communicate with referring clinicians.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Arash Mirrahimi, MD, MSc; Charlotte Gallienne, MD; Hournaz Ghandehari, MD, FRCPC

Acute mesenteric ischemia (AMI) is a true surgical emergency and a rare life-threatening condition, accounting for 0.01% of hospital admissions, with extremely high mortality rates (up to 69%). Poor outcomes remain prevalent despite advances in both diagnostic and treatment options over the last two decades

Early diagnosis and management are particularly important given that the highest incidence of AMI occurs in the elderly population, who often have multiple comorbidities leading to a worse prognosis. Biphasic contrast enhanced multidetector computed tomography (MDCT) images have become the mainstay and standard of care for investigation and timely diagnosis of AMI.

As such, the importance of recognizing imaging features of AMI and timely communication of findings with the referring physicians is of utmost importance for diagnostic radiologists and always a worthwhile topic for review. We have therefore endeavored to provide a brief summary of the presentation of AMI, its causes, relevant anatomy, and most importantly, illustrated review of CT findings that delineate ischemic changes of the bowel and mesentery.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Adam C. Riegel, PhD, DABR

The purpose of this article is to review recent advancements in artificial intelligence (AI) as they specifically pertain to head-and-neck radiation oncology. The main focus will be applications and clinical impact of these techniques. Specifically, this article addresses autosegmentation of organs at risk (OARs), autosegmentation of target volumes, treatment planning and predictive dose calculation, image-guided adaptive radiation therapy, prognosis and outcome prediction, and quality assurance.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

CT Technology continues to evolve with modern platforms designed for radiation therapy (XRT) with advanced applications supporting comprehensive diagnoses, precise treatment plans and better patient outcomes. XRT is guided by CT Simulation which can be obstructed due to metal implants beam hardening artifacts. Metal Artifact Reduction (MAR) is a projection-based reconstruction technique that restores anatomical details obscured by metal during conventional image reconstruction and automatically improves images for increased clinical confidence.

In this accredited Expert Forum Webinar, Yashbir Mehta,MD, shares insights into the advanced CT Simulation techniques supporting the improvement of XRT treatment planning accuracy and specificity of tumor volumes. These advanced features are supported by a clinical review of cases demonstrating improved treatment plans, thus impacting patient management and care.

Learning Objectives

• Implement advanced CT applications.
• Effectively manage obese and claustrophobic patient.
• Implement workflow considerations for improved service and reliability.

This program is made possible through an unrestricted educational grant from FUJIFILM Healthcare Americas Corporation.

Victor E. Chen, MD; Joseph F. Lombardo, DO, PharmD; Serguei A. Castaneda, MD; Karen M. Winkfield, MD, PhD; Scot A. Fisher, DO; Eric L. Gressen, MD; Shari B. Rudoler, MD; Weisi Yan, MD, PhD; Shefali R. Gajjar, MD

This review article describes key factors that contribute to lung cancer disparities for Black patients and discusses strategies and future directions for radiation oncologists to bridge the gap. Topics discussed are contributing factors for disparities in lung cancer incidence, disparities in lung cancer prevention, disparities in lung cancer treatment and outcomes, and potential strategies to overcome barriers.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Ronald Chow, MS; Minglei Kang, PhD; Shouyi Wei, PhD; J. Isabelle Choi, MD; Robert H. Press, MD; Shaakir Hasan, DO; Arpit M. Chhabra, MD; Keith A. Cengel, MD, PhD; Haibo Lin, PhD; Charles B. Simone, II, MD

In this manuscript, the authors review the proposed mechanisms of action for FLASH radiation therapy (FLASH RT), summarize early preclinical results, discuss the first-in-human treatments with a focus on proton FLASH, and highlight challenges and future considerations of FLASH RT.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Jonathan R Wood, MD; Ghazal Shadmani, MD; Marilyn J Siegel, MD

Pediatric upper-extremity sports injuries are common. However, the diagnosis can be challenging for radiologists who have limited experience in imaging children. Increased awareness of the imaging findings is critical in establishing the correct diagnosis and ensuring optimal patient management and outcomes. This activity is designed to educate radiologists about the radiographic findings of common acute and chronic sports injuries of the upper extremities in the pediatric population. Mechanisms of injury are also reviewed, as they impact the type of fracture that occurs. Additionally, the role of magnetic resonance imaging in complementing plain radiography is discussed.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Leila T. Tchelebi, MD; Nicholas G. Zaorsky, MD, MS; Jennifer Rosenberg, MD; Kujtim Latifi, PhD; Sarah Hoffe, MD

While MR-guided radiation therapy (MRgRT) offers many benefits, it is a costly and resource-intensive investment that can strain radiation oncology clinics not adequately prepared to incorporate this treatment. This work reviews clinical advantages and practical limitations of MRgRT, and suggests ideal patients for this technology. The authors also provide a practical guide for centers acquiring MRI-based linear accelerators to foster seamless integration.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Nathaniel Goldman, BA*; Matthew Gallitto, MD*; Cheng-Chia Wu, MD, PhD

This review article provides a thorough outline of various modalities to help guide implementation of strategies to reduce anxiety in treatment facilities. Categories include interventions before treatment (psychoeducational interventions, play therapy) and during treatment (specialized staff, environmental modifications, distraction, reward/incentive systems).

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

This CME/CE accredited webinar with Lawrence N. Tanenbaum, MD, FACR,  provides a review of the currently available FDA-approved MR contrast agents and their safety profiles. Following Dr. Tanenbaum's presentation questions from the audience were addressed in a moderated Q&A session.

Educational Objectives:
At the completion of this activity, participants should be able to:

• Discuss the available FDA-approved contrast agents in the US market.
• Review the chemical structure, indications, and safety profile of these agents.
• Develop a better understanding of how selection of contrast can affect patient outcomes.

Supported through an unrestricted educational grant from GE Healthcare

Brittany R. Derynda, BA; *Casey L. Liveringhouse, MD; John M. Bryant, MD; Stephen A. Rosenberg, MD, MS

This review article describes technical advantages for MR-guided radiation therapy (MRgRT) that lead to the rationale for use in the oligometastatic setting. The authors summarize existing data demonstrating the feasibility, safety, and efficacy of MRgRT for various disease sites. Finally, the authors discuss ongoing clinical trials utilizing MRgRT, which will continue to define and expand its role.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Orest Kayder, MD; Hamed Kordbacheh, MD; Sai Srikar Kilaru, MD; Imad Zak, MD, FACR

A variety of non-neoplastic intracranial cystic lesions are frequently encountered on brain imaging. Knowledge of their locations, imaging characteristics, and clinical behavior helps limit the differential diagnosis and guiding treatment. Jointly provided by IAME and Anderson Publishing Inc, this activity is designed to educate radiologists about idiopathic and acquired intracranial cystic lesions encountered on imaging, including their frequency, clinical presentation, and distinguishing imaging features that will help in guiding management.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Nikhil G. Thaker, MD, MHA, MBA; Brian De, MD; Chirag Shah, MD; Sudhir Manda, MD; Trevor J. Royce, MD, MS, MPH; Sushil Beriwal, MD, MBA

As health care systems transform from traditional care delivery models to digital health models, IoT will enable integration of electronic health records and nonhealth care data with therapeutic augmented reality, wearable technologies, smart voice assistants, digital medicines, robots with artificial intelligence capabilities, continuous and Bluetooth-enabled monitors, and smart cameras. This review discusses the digital transformation of health care systems, IoT technology in cancer care, its practical applications in radiation oncology, and ongoing opportunities and challenges.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Learning Objectives

• Implement digital breast tomosynthesis protocols in clinical practice.
• Differentiate characteristics of synthetic 2D mammography by manufacturer.
• Discuss differences between wide vs narrow angle DBT acquisition and its effect of angular range on synthetic-2D image generation.

This program is made possible through an unrestricted educational grant from FUJIFILM Healthcare Americas Corporation.

Will Jin, MD;1* Santosh Mohan, MMCi, COPHIMS;2 Matt Adams, BS;3 Sarah Hoffe, MD;4 Edmondo Robinson, MD, MBA2

Recent studies have shown the emergence of digital therapeutics (DTx) as potential solutions in the cancer care continuum to improve medication adherence, chemotherapy tolerance, and overall survival, while potentially reducing financial toxicity. In this review, the authors examine these new modalities and possible future benefits for cancer patients.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.

Kaitlin M Zaki-Metias, MD; Mehrvaan Kaur, MD; Huijuan Wang, MD; Bilal Turfe; Nicholas Mills, MD; Yanruo Lu, MD; Bashir H Hakim, MD; Leslie S Allen, MD

Pregnant patients infrequently undergo CT given the risk of radiation to the developing fetus. As such, when CT is performed on pregnant patients in emergent situations, radiologists may be unfamiliar with the appearance of the placenta on CT and its normal evolution throughout gestation. This activity is designed to educate radiologists about the normal appearance of the placenta on CT and its evolution throughout pregnancy, as well as differentiation of these findings from placental abruption.

Available for SA-CME Credit. To receive SA–CME credit, you must complete the post exam and review the discussion and references provided with the exam results.