Catalogue Number: B672-LET
| Manufacturer: | Leinco Technologies, Inc |
| Type: | Biological Buffers |
| Shipping Condition: | RT |
| Unit(s): | 100 ml, 250 ml |
| Application: | IHC |
Description: The ADAPT-3D Delipidation Buffer Component A is a crucial part of the innovative ADAPT-3D Tissue Clearing Kit developed by Leinco Technologies. This kit represents a significant advancement in preparing biological tissues for 3-dimensional fluorescence imaging, offering superior speed, versatility, and preservation of tissue morphology and fluorescence. Traditional tissue clearing methods often involve lengthy protocols and can sometimes compromise the integrity of the tissue or the fluorescence signal. The ADAPT-3D method, including its specialized delipidation process, was designed to overcome these limitations. Lipids within tissues are a major source of light scattering, hindering deep tissue imaging. Efficient removal of these light-interfering substances is therefore paramount for achieving optical clarity and enabling clear visualization of fluorescent signals deep within samples. ADAPT3D Delipidation Buffer Component A works in conjunction with Component B (and other buffers in the ADAPT-3D kit) to achieve partial delipidation. This targeted delipidation step is a key innovation of the ADAPT-3D protocol. It facilitates the removal of lipids while carefully maintaining the tissue's structural integrity and minimizing any potential loss of endogenous fluorophores or antibody staining efficiency. The development of this component is rooted in a deep understanding of the challenges associated with tissue transparency and the need for a robust, rapid, and non-toxic solution for advanced 3D microscopy. By contributing to the efficient and gentle delipidation process, ADAPT3D Delipidation Buffer Component A plays a vital role in enabling researchers to rapidly prepare fixed tissue samples across a wide range of species and tissue types, from human intestinal tissue to intact mouse brains, for unprecedented depth and clarity in 3D fluorescence imaging.