RESUMEN
This case describes a patient who underwent mitral valve replacement (MVR) surgery with preservation of the subvalvular apparatus who suffered anterolateral papillary muscle rupture (PMR) postseparation from cardiopulmonary bypass. This patient had no history of coronary artery disease (CAD); subsequent pathology of the papillary muscle showed evidence of amyloid deposition. Although most PMRs are caused by ischemia from CAD, cardiac amyloidosis must be considered in the absence of CAD and worked up appropriately as cardiac involvement of amyloidosis, especially the amyloid light-chain (AL) subtype, is prognostic of increased mortality that can be mitigated with therapy.
Asunto(s)
Amiloidosis , Enfermedades de las Válvulas Cardíacas , Insuficiencia de la Válvula Mitral , Amiloidosis/complicaciones , Humanos , Válvula Mitral/cirugía , Insuficiencia de la Válvula Mitral/etiología , Insuficiencia de la Válvula Mitral/cirugía , Músculos Papilares/diagnóstico por imagen , Músculos Papilares/cirugíaAsunto(s)
Insuficiencia Suprarrenal , Paraproteinemias , Insuficiencia Suprarrenal/epidemiología , Insuficiencia Suprarrenal/etiología , Adulto , Anciano , Femenino , Humanos , Masculino , Persona de Mediana Edad , Paraproteinemias/complicaciones , Paraproteinemias/epidemiología , Estudios Retrospectivos , Factores de RiesgoRESUMEN
BACKGROUND: Retinal microvascular imaging is an especially promising application of high resolution imaging since there are increasing options for therapeutic intervention and need for better structural and functional biomarkers to characterize ocular and systemic vascular diseases. MAIN BODY: Adaptive optics scanning light ophthalmoscopy (AOSLO) is an emerging technology for improving in vivo imaging of the human retinal microvasculature, allowing unprecedented visualization of retinal microvascular structure, measurements of blood flow velocity, and microvascular network mapping. This high resolution imaging technique shows significant potential for studying physiological and pathological conditions of the retinal microvasculature noninvasively. CONCLUSION: This review will briefly summarize the abilities of in vivo human retinal microvasculature imaging in healthy controls, as well as patients with diabetic retinopathy, retinal vein occlusion, and sickle cell retinopathy using AOSLO and discuss its potential contribution to scientific research and clinical applications.