tissue must first be stained to meet specific diagnostic requirements
a meticulous process demanding significant time and expertise from specialists. With advancements in deep learning
this staining process can now be achieved through computational methods known as virtual staining. This technique replicates the visual effects of traditional histological staining in pathological imaging
enhancing efficiency and reducing costs. Extensive research in virtual staining for pathology has already demonstrated its effectiveness in generating clinically relevant stained images across a variety of diagnostic scenarios. Unlike previous reviews that broadly cover the clinical applications of virtual staining
this paper focuses on the technical methodologies
encompassing current models
datasets
and evaluation methods. It highlights the unique challenges of virtual staining compared to traditional image translation
discusses limitations in existing work
and explores future perspectives. Adopting a macro perspective
we avoid overly intricate technical details to make the content accessible to clinical experts. Additionally
we provide a brief introduction to the purpose of virtual staining from a medical standpoint
which may inspire algorithm-focused researchers. This paper aims to promote a deeper understanding of interdisciplinary knowledge between algorithm developers and clinicians
fostering the integration of technical solutions and medical expertise in the development of virtual staining models. This collaboration seeks to create more efficient
generalized
and versatile virtual staining models for a wide range of clinical applications.
Abstract
In pathological examinations
tissue must first be stained to meet specific diagnostic requirements
a meticulous process demanding significant time and expertise from specialists. With advancements in deep learning
this staining process can now be achieved through computational methods known as virtual staining. This technique replicates the visual effects of traditional histological staining in pathological imaging
enhancing efficiency and reducing costs. Extensive research in virtual staining for pathology has already demonstrated its effectiveness in generating clinically relevant stained images across a variety of diagnostic scenarios. Unlike previous reviews that broadly cover the clinical applications of virtual staining
this paper focuses on the technical methodologies
encompassing current models
datasets
and evaluation methods. It highlights the unique challenges of virtual staining compared to traditional image translation
discusses limitations in existing work
and explores future perspectives. Adopting a macro perspective
we avoid overly intricate technical details to make the content accessible to clinical experts. Additionally
we provide a brief introduction to the purpose of virtual staining from a medical standpoint
which may inspire algorithm-focused researchers. This paper aims to promote a deeper understanding of interdisciplinary knowledge between algorithm developers and clinicians
fostering the integration of technical solutions and medical expertise in the development of virtual staining models. This collaboration seeks to create more efficient
generalized
and versatile virtual staining models for a wide range of clinical applications.