Lesson 1Use of gadolinium-based contrast agents: indications, contraindications, and NSF risk mitigationReviews gadolinium contrast properties, uses, and doses, then covers contraindications, NSF risks, screening, and risk reduction tactics while keeping image quality and clinical benefits intact.
Gadolinium chelate types and stability classesClinical indications in neuro and MSK MRIRenal function assessment and eGFR thresholdsContraindications and high‑risk patient groupsNSF pathophysiology and risk reduction stepsInformed consent and documentation practicesLesson 2Sequence selection and parameter adjustments to trade image contrast, spatial resolution, and scan timeExplains how sequences and parameters affect contrast, resolution, and time, with practical balances using TR, TE, flip angle, FOV, matrix, and parallel imaging in standard protocols.
TR, TE, and flip angle fundamentalsAdjusting contrast with sequence familiesBalancing spatial resolution and SNRScan time, averages, and parallel imagingFOV, matrix, and slice thickness choicesProtocol optimization for clinical questionsLesson 3Safety zones, zone access control, and patient monitoring inside MRI (hearing protection, emergency response)Defines MRI safety zones, access rules, and staff duties, then addresses patient monitoring, ear protection, emergency plans, and handling codes or quenches in the MRI area safely.
ACR MRI safety zones I–IV layoutControlled access and staff responsibilitiesScreening before zone III and IV entryHearing protection selection and fittingPhysiologic monitoring and alarms in MRIEmergency response, code and quench plansLesson 4Artifacts in MRI and how they affect interpretation: motion, susceptibility, chemical shift, and their mitigationDescribes common MRI artifacts, causes, and looks, emphasizing motion, susceptibility, chemical shift, and methods to spot, lessen, or use them for better image reading accuracy.
Patient motion and ghosting artifactsFlow and pulsation artifacts in neuro MRIMagnetic susceptibility and metal artifactsChemical shift and India ink artifactsAliasing, wraparound, and truncationSequence and parameter tweaks to reduce artifactsLesson 5Basic MRI signal formation: hydrogen nuclei, T1 and T2 relaxation, proton density, and image contrast mechanismsIntroduces MRI signals from hydrogen atoms, Larmor precession, resonance, then T1/T2 relaxation, proton density, and their role in creating contrast for clinical MRI images.
Hydrogen nuclei, spin, and Larmor frequencyRF excitation, resonance, and signal inductionT1 relaxation and longitudinal recoveryT2 relaxation and transverse decayProton density and its role in contrastFactors influencing overall image contrastLesson 6Patient preparation for MRI musculoskeletal and neuro exams (positioning, coils, immobilization, and comfort measures)Details prep for bone/joint and brain MRI, including screening, positioning, coil selection, immobilization, and comfort tips to boost image quality and cut motion, anxiety, and rescan needs.
Pre‑exam screening and patient educationPositioning for spine and brain MRIPositioning for joints and extremity MRICoil selection and placement optimizationImmobilization devices and motion controlComfort, anxiety reduction, and sedationLesson 7MRI safety screening: ferromagnetic hazards, implants, pacemakers, and the safety questionnaire workflowOutlines MRI screening processes, focusing on magnetic risks, implants, heart devices, interpreting labels, handling conditional implants, and recording clearance steps.
Ferromagnetic object and projectile risksStandard MRI safety questionnaire itemsPacemakers and cardiac device categoriesMR Safe, MR Conditional, MR Unsafe labelsHandling aneurysm clips and neurostimulatorsDocumentation and communication of clearanceLesson 8Common MRI sequences relevant to musculoskeletal and neuro imaging: T1-weighted, T2-weighted, FLAIR, DWI, GRE/SWI, proton density, and STIRReviews key MRI sequences for bone/joint and brain imaging, covering contrast traits, uses, and limits of T1, T2, FLAIR, DWI, GRE/SWI, proton density, and STIR.
T1‑weighted sequences and main indicationsT2‑weighted and fluid‑sensitive imagingFLAIR for parenchymal and CSF pathologyDWI and ADC for acute ischemia and tumorsGRE and SWI for blood and calcificationPD and STIR in joint and marrow evaluation
