Anterior Chamber Depth
Anterior Chamber Depth - Related Videos
05:27
In Vivo Imaging of Liver Spheroids Engrafted in the Anterior Chamber of the Mouse Eye
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2024
Here, we describe a platform that allows noninvasive in vivo imaging of liver spheroids engrafted in the anterior chamber of the mouse eye. The workflow spans from generating spheroids from primary liver cells to transplantation into the mouse eye and in vivo imaging at cellular resolution by confocal microscopy.
03:33
Grafting Pancreatic Islets: A Method to Implant Pancreatic Islets into the Anterior Chamber of the Mouse Eye for In Vivo Imaging
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2023
This video describes the protocol for grafting human pancreatic islets into the anterior chamber of the mouse’s eye to monitor revascularization of human islet grafts in vivo. It also helps to understand the contribution of recipient versus donor cells in promoting the encapsulation and vascularization of the graft.
08:21
Real Time In Vivo Tracking of Thymocytes in the Anterior Chamber of the Eye by Laser Scanning Microscopy
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Cited by 2 •
2018
The goal of the protocol is to show longitudinal intravital real-time tracking of thymocytes by laser scanning microscopy in thymic implants in the anterior chamber of the mouse eye. The transparency of the cornea and vascularization of the graft allows for continuously recording progenitor cell recruitment and mature T-cell egress.
05:54
Transplantation into the Anterior Chamber of the Eye for Longitudinal, Non-invasive In vivo Imaging with Single-cell Resolution in Real-time
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Cited by 31 •
2013
A new approach combining intraocular transplantation and confocal microscopy enables longitudinal, non-invasive real-time imaging with single-cell resolution within grafted tissues in vivo. We demonstrate how to transplant pancreatic islets into the anterior chamber of the mouse eye.
12:29
Upright Imaging of Drosophila Egg Chambers
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Cited by 1 •
2015
The upright imaging method described in this protocol allows for the detailed visualization of the poles of a developing Drosophila melanogaster egg. This end-on view provides a new perspective into the arrangements and morphologies of multiple cell types in the follicular epithelium.
FAQs
A reduced depth leaves less space between the cornea and crystalline lens, which can reduce the drainage angle. When that angle becomes narrower, clinicians recognize greater susceptibility to angle-closure glaucoma. Measuring the chamber therefore contributes to risk assessment rather than serving as an isolated anatomical observation, helping identify patients who may require closer ophthalmic evaluation.
Optical coherence tomography, Scheimpflug imaging, ultrasound biomicroscopy, and slit-lamp methods can all assess the space between the cornea and lens. Their shared clinical purpose is to characterize this anatomical relationship and provide a depth measurement. These approaches support objective evaluation of ocular anatomy for diagnosis, treatment planning, refractive-surgery assessment, or monitoring.
Serial assessment can help clinicians monitor anatomical changes associated with aging or eye disease. A change in depth may be clinically relevant because chamber dimensions relate to the drainage angle and, consequently, to susceptibility to angle closure. Trend information can therefore complement risk assessment, diagnosis, and treatment planning rather than relying only on a single examination.
During an ophthalmic evaluation, clinicians obtain the measurement with a method such as optical coherence tomography, Scheimpflug imaging, ultrasound biomicroscopy, or slit-lamp assessment. They interpret the cornea-to-lens space in relation to the drainage angle and the patient’s clinical needs. The result can support risk assessment, diagnostic evaluation, treatment planning, or longitudinal monitoring.
Anterior Chamber Depth provides anatomical information that clinicians can incorporate into intraocular lens selection. The measurement characterizes the space between the cornea and crystalline lens, which is relevant when planning an ocular procedure. It is therefore one parameter used in clinical decision-making, alongside its role in refractive-surgery assessment and evaluation of eye disease.
For refractive-surgery candidates, the measurement contributes to anatomical assessment before treatment. It helps clinicians evaluate how the cornea-to-lens space relates to the drainage angle and consider that anatomy during planning. This application extends beyond glaucoma risk, because the same structural parameter can support procedure planning and broader ophthalmic evaluation before intervention.