The most common diseases are dry eye syndrome and secondary Sjögrens syndrome, but episcleritis, scleritis, retinopathy (more often affecting both eyes than one), ischemic optic neuropathy, retinal detachment, and secondary angle-closure glaucoma may occur. In addition, the medications used to treat SLE can cause eye disease: long-term glucocorticoid use can cause cataracts and secondary open-angle glaucoma, and long-term hydroxychloroquine treatment can cause vortex keratopathy and maculopathy. Reproductive
While most pregnancies have positive outcomes, there is a greater risk of adverse events occurring during pregnancy. SLE causes an increased rate of fetal death in utero and spontaneous abortion (miscarriage). The overall live-birth rate in people with SLE has been estimated to be 72%. Pregnancy outcome appears to be worse in people with SLE whose disease flares up during pregnancy.Neonatal lupus is the occurrence of SLE symptoms in an infant born from a mother with SLE, most commonly presenting with a rash resembling discoid lupus erythematosus, and sometimes with systemic abnormalities such as heart block or enlargement of the liver and spleen. Neonatal lupus is usually benign and self-limited.Medications for treatment of SLE can carry severe risks for female and male reproduction. Cyclophosphamide (also known as Cytoxan), can lead to infertility by causing premature ovarian insufficiency (POI), the loss of normal function of ones ovaries prior to age forty. Methotrexate can cause termination or deformity in fetuses and is a common abortifacient, and for men taking a high dose and planning to father, a discontinuation period of 6 months is recommended before insemination.
Examples include collapsed lungs which have formed bullae, chronic obstructive lung disease, lung cancer, and fibrocavitary sarcoidosis. Another risk factor is immunosuppression; most commonly, this includes allogeneic stem cell transplantation, prolonged neutropaenia, immunosuppressive drug therapy, chronic granulomatous disease and haematological malignancies. Certain demographics are also at higher risk, including the elderly, male gender and those with a low body mass index.There appears to be increasing evidence for complex genetic factors increasing the risk of developing chronic pulmonary aspergillosis, such as defects to toll-like receptor (TLR) 4, IL1 and IL15, TLR3, TLR10, TREM1, VEGFA, DENND1B, and PLAT. Mechanism
The full underlying pathogenesis is not completely understood. Most people with chronic pulmonary aspergillosis have functional immune status, but usually have underlying structural damage to the lungs from an underlying process or disease. Most commonly, pre-existing pulmonary cavities from other diseases such as tuberculosis become colonised with Aspergillus conidia which have been inhaled—humans inhale between 1,000 and 10 billion spores per day, of which A. fumigatus is the most common.Aspergillomas themselves usually form in existing cavities but the cavities may form directly from chronic pulmonary aspergillosis. People with pulmonary tuberculosis with a cavity larger than 2 cm appear to have a 20% increased risk of developing chronic pulmonary aspergillosis.It is postulated that conidia, once inhaled, are attacked by the host immune defences—specifically phagocytes and alveolar macrophage resident in the small airways. It is unknown whether these defences are sufficient to clear conidia or whether they are directly responsible for the inflammation leading to chronic pulmonary aspergillosis.