Linked from

The 14 pages that link to Induced pluripotent stem cell, each with the reason it gives.

• Stem cellBroader topic: These cells provide pluripotency without deriving the cells from an embryo.

• OrganogenesisRelated: These cells can be directed toward organ-forming lineages for disease models and research.

• Embryonic stem cellCompared with: It can provide pluripotent cells without deriving them from embryos.

• Kyoto UniversityBroader topic: Yamanaka’s Kyoto University research established a method for producing these cells.

• Somatic cell nuclear transferCompared with: It can create pluripotent cells without transferring a nucleus into an egg.

• Cellular reprogrammingBroader topic: This cell type became the defining product of transcription-factor-based reprogramming.

• TelomeraseBroader topic: Reprogramming often restores telomerase activity as cells acquire extended self-renewal.

• John GurdonBroader topic: Shinya Yamanaka’s later work achieved reprogramming without transferring a nucleus into an egg.

• Somatic cellBroader topic: It can be made by resetting the identity of an adult somatic cell.

• Stem-cell therapyRelated: Reprogramming could provide patient-matched cells, but differentiation and safety remain challenges.

• Shinya YamanakaBroader topic: Yamanaka’s defining contribution was showing that a small set of factors could create these cells.

• Martin EvansCompared with: These cells later offered an alternative source of pluripotent cells to the embryonic cells Evans studied.

• Cellular differentiationBroader topic: These cells can be differentiated into selected types for disease models and potential therapies.

• Allogeneic cellsCompared with: Patient-specific cells may avoid donor mismatch, whereas banked donor lines can be allogeneic.