Organoid Technology and Its Role for Theratyping Applications in Cystic Fibrosis.
Jessica ContiClaudio SorioPaola MelottiPublished in: Children (Basel, Switzerland) (2022)
Cystic fibrosis (CF) is a autosomal recessive, multisystemic disease caused by different mutations in the CFTR gene encoding CF transmembrane conductance regulator. Although symptom management is important to avoid complications, the approval of CFTR modulator drugs in the clinic has demonstrated significant improvements by targeting the primary molecular defect of CF and thereby preventing problems related to CFTR deficiency or dysfunction. CFTR modulator therapies have positively changed the patients' quality of life, especially for those who start their use at the onset of the disease. Due to early diagnosis with the implementation of newborn screening programs and considerable progress in the treatment options, nowadays pediatric mortality was dramatically reduced. In any case, the main obstacle to treat CF is to predict the drug response of patients due to genetic complexity and heterogeneity. Advances in 3D culture systems have led to the extrapolation of disease modeling and individual drug response in vitro by producing mini organs called "organoids" easily obtained from nasal and rectal mucosa biopsies. In this review, we focus primarily on patient-derived intestinal organoids used as in vitro model for CF disease. Organoids combine high-validity of outcomes with a high throughput, thus enabling CF disease classification, drug development and treatment optimization in a personalized manner.
Keyphrases
- cystic fibrosis
- pseudomonas aeruginosa
- lung function
- end stage renal disease
- high throughput
- ejection fraction
- chronic kidney disease
- primary care
- newly diagnosed
- peritoneal dialysis
- public health
- risk factors
- machine learning
- type diabetes
- cardiovascular disease
- coronary artery disease
- emergency department
- quality improvement
- metabolic syndrome
- air pollution
- insulin resistance
- weight loss
- single molecule
- intellectual disability
- replacement therapy