Scientific reports · 2026
Electrospun poly(lactic acid) biopolymer fibers functionalized with Y-sperm-specific scFv enable immunoaffinity-driven bovine sperm sexing.
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Paitoon Phanuwit, Thongkham Marninphan, Jantanasakulwong Kittisak, Saenjaiban Aphisit, Sartsook Apinya, Hongsibsong Surat, Tanadchangsaeng Nuttapol, Rachtanapun Pornchai, Sringarm Korawan
Аннотация
Assisted reproductive technologies increasingly demand efficient approaches for sperm sexing in livestock, ideally compatible with scalable manufacturing and reduced resource use. This study serves as a proof-of-concept for a biocompatible electrospun poly (lactic acid) (PLA) biomaterial platform functionalized with a recombinant single-chain variable fragment antibody specific to bovine Y-sperm (BY-scFv), enabling selective separation of bovine Y-sperm from X-sperm populations. Electrospun mats were prepared by selection PLA concentration (6-10% w/w) and deposited solution volume (10-20 mL), and were evaluated based on electrospinning performance, fiber morphology, thickness, water-accessible porosity and water uptake capacity. A mat fabricated at 8% PLA with a 15 mL deposited volume was selected for subsequent functionalization and separation experiments. The presence and retention of immobilized BY-scFv after EDC/NHS coupling were supported by ELISA, FT‑IR, SEM, and fluorescence labeling. Using a syringe‑packed format, the functionalized mats enabled selective sperm capture and produced sex sperm ratio in different fractions, with maximum values of 71.4% X‑sperm in the supernatant fraction and 76.1% Y‑sperm in the eluted fraction. These results indicate that antibody‑functionalized electrospun PLA scaffolds can serve as a biopolymer-based platform for sperm immunoaffinity processing, with potential for further optimization and translational evaluation.